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Biomimicry | Cities | Envisioning
  1. Home
  2. Research
  3. Cities
  4. Biomimicry

Biomimicry

Biomimicry involves studying nature's forms, processes, and systems and applying these principles to human design. This interdisciplinary approach draws from biology, engineering, architecture, and materials science to develop technologies harmonising with the natural world. Examples include energy-efficient buildings, sustainable urban water systems, and innovative waste management solutions. By leveraging nature-inspired designs, biomimicry can help create more sustainable, resilient, and liveable cities. 

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BACK TO CITIESVIEW INTERACTIVE VERSION
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LraSdVa2SxO6f6elFo3w1w
Biobased Materials

With the growing global emphasis on circularity, climate change mitigation, and reducing reliance on finite fossil fuel resources, this class of materials emerges as a future-oriented solution. Derived from renewable biological sources, such as plants, fungi, and microorganisms, these materials are biocompatible and drastically reduce harm to the planet while also reducing carbon emissions and minimising reliance on non-renewable resources in construction and building materials.

Technology Readiness Level
7/9
Diffusion of Innovation
3/5
Technology Life Cycle
2/4
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Eqx5A DjQA2cenosRlhVdA
More-than-human Rights

To create urban environments that are inclusive and supportive of both human and non-human life, this emerging framework integrates the legal and ethical recognition of the rights of animals, plants, and ecosystems into urban planning. This solution aims to ensure that cities are designed to support diverse forms of life. By incorporating green infrastructures such as urban wetlands, green roofs, and wildlife corridors, this technology mitigates environmental impacts, enhances biodiversity, and improves public health and well-being.

Technology Readiness Level
6/9
Diffusion of Innovation
1/5
Technology Life Cycle
1/4
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H6ZGfOAGRYiyQnO0zdvKVA
Sponge City

A transformative urban water management that addresses problems associated with increased urbanisation and climate change—namely, urban flooding, water scarcity, and pollution. This strategy involves retrofitting urban environments with natural and engineered features that mimic natural water processes. Key elements include permeable pavements, green roofs, rain gardens, and artificial wetlands, which work collectively to absorb, filter, and store rainwater.

Technology Readiness Level
6/9
Diffusion of Innovation
3/5
Technology Life Cycle
2/4
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M7CFmLD9Qx2KxloytEYe6w
Building Information Modelling

BIM refers to detailed digital representations of a construction project's physical and functional characteristics, which facilitate comprehensive management and documentation, supporting all phases from design through construction to operational life. Through the use of a unified digital model that all stakeholders access and contribute to, it ensures all parties have up-to-date and accurate information. BIM helps reduce errors, minimises cost overruns, and streamlines project timelines by allowing for early detection of potential issues and better visualisation.

Technology Readiness Level
9/9
Diffusion of Innovation
3/5
Technology Life Cycle
3/4

As cities around the world are grappling with problems such as loss of biodiversity, energy inefficiency, water scarcity, and air pollution, biomimicry seeks to solve these issues by emulating nature's time-tested patterns and strategies to create innovative and sustainable solutions. Biomimicry, or biomimetics, tackles the need for sustainable, efficient, and resilient infrastructure in the face of rapid urbanisation and climate change.

Essentially, biomimicry involves studying the forms, processes, and systems found in nature and applying these principles to human design. This multidisciplinary field draws on biology, engineering, architecture, and materials science to develop technologies that function in harmony with the natural world. For instance, architects might design buildings that mimic the natural cooling properties of termite mounds, significantly reducing the need for air conditioning. Similarly, urban planners can look to the water management strategies of wetlands to create efficient stormwater systems that mitigate flooding and enhance water quality.

One practical example of biomimicry in urban design is the development of self-cleaning surfaces inspired by the lotus leaf, which repels water and dirt through its microstructure. This technology can be applied to buildings, reducing maintenance costs and the need for harmful cleaning chemicals. By integrating these biomimetic solutions, cities can become more sustainable and resilient, addressing critical environmental challenges while enhancing their inhabitants' quality of life.

As urban areas continue to expand, the demand for resources and the impact on the environment will only increase. Biomimicry offers a pathway to developing urban infrastructures that are not only efficient and resilient but also regenerative, contributing positively to the environment rather than depleting it. By learning from and emulating the natural world, cities can reduce their carbon footprint, improve resource management, and create healthier, more liveable environments for future generations.

Technology Readiness Level
6/9Prototype Testing
Diffusion of Innovation
2/5Early Adopters
Technology Life Cycle
2/4Growth
Category
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