Biomimicry: Designing to Model Nature  

by Stephanie Vierra, Assoc. AIA, LEED AP, BD+C
Vierra Design & Education Services, LLC



The Biomimicry Institute defines biomimicry as the science and art of emulating Nature's best biological ideas to solve human problems. For billions of years nature—animals, plants, and even microbes—has been solving many of the problems we are still dealing with today. Each has found what works, what is appropriate, and what lasts.

Biomimicry and biomimetics come from the Greek words bios, meaning life, and mimesis, also meaning to imitate. Scientist and author Janine Benyus popularized the term biomimicry in her 1997 book Biomimicry: Innovation Inspired by Nature. Benyus believes that most of the problems that have ever existed have already been solved by nature. Benyus suggests shifting one's perspective from learning about nature to learning from nature as a way to solve human problems. Sustainability issues are among those that can be addressed by applying the biomimicry process to a project. Utilizing an integrated design process can help open up opportunities to identify biological solutions to building problems and include the perspective of nature in the design process—as it is likely that nature already offers a solution.


Humans have always looked to nature for inspiration to solve problems. Leonardo da Vinci applied biomimicry to the study of birds in the hope of enabling human flight. He very closely observed the anatomy and flight of birds, and made numerous notes and sketches of his observations and countless sketches of proposed "flying machines". Although he was not successful with his own flying machine, his ideas lived on and were the source of inspiration for the Wright Brothers, who were also inspired by their observations of pigeons in flight. They finally did succeed in creating and flying the first airplane in 1903.

3 side-by-side images: left is Da Vinci's flying machine design, middle is a photo of pigeon drinking from a water fountain, and right is a photo of S-3B aircraft

Leonardo's design for a flying machine, c. 1488, inspired by birds in flight. Pigeons also influenced the Wright Brothers' design for the first airplane.

Recent success stories exist in terms of how biomimicry can be applied to building design. While buildings serve to protect us from nature's extremes, this does not mean that they do not have anything to learn from the biological world. In fact, nature regularly builds structures with functionality that human-built structures could usefully emulate. Biomimetic research, science, and applications continue to grow and are already influencing the next generation of building products and systems as well as whole building designs.

For example, photovoltaic systems, which harvest solar energy, are a first step at mimicking the way a leaf harvests energy. Research is underway to create solar cells that more closely resemble nature. These cells are water-gel-based—essentially artificial leaves—that couple plant chlorophyll with carbon materials, ultimately resulting in a more flexible and cost-effective solar cell. (For more information see this article in Scientific American)

photovoltaic system
close up of a leaf

A photovoltaic system collects energy from the sun, which was inspired by the way leaves harvest sunlight as part of photosynthesis.

The bumpy surface of a lotus leaf (computer graphic close up view below-left) acts as a self-cleaning mechanism allowing dirt to be cleansed off the surface naturally by water, for instance, during a rain shower. Even the smallest of breezes on the plant causes a subtle shift in the angle of the plant allowing gravity to remove the dirt without the plant having to expend any energy. This same idea has been applied to the design of new building materials such as paints, tiles, textiles, and glass that reduce the need for detergents and labor and also reduces maintenance and material replacement costs.

computer graphic enlargement of the surface of a lotus leaf
stock photo of a man using a paint roller


Researchers have also developed non-toxic, formaldehyde-free wood glue that is now used in hardwood, plywood, and particleboard projects. The researchers discovered how to do this by understanding how blue mussels attach firmly under the water using flexible, thread-like tentacles.

photo of blue mussels
photo of hardwood plywood


The Thorny Devil, a desert lizard, gathers all the water it needs directly from rain, standing water, or from soil moisture, against gravity without using energy or a pumping device. Water is conveyed to the lizard's mouth by capillary action through a circulatory system on the surface of its skin. This same concept could be applied to passive collection and distribution systems of naturally distilled water which would reduce the energy consumed in collecting and transporting water by pump action (e.g., to the tops of buildings), and provide other inexpensive technological solutions such as managing heat through evaporative cooling systems, and protecting structures from fire through on-demand water barriers.

photo of Thorny Devil lizard
photo of water beading on a surface


Damage to an organism naturally elicits a healing response. Bone is also known to detect damage to itself and can heal within range of its initial strength. This same concept has been applied to synthetic material design and contributed to the development of a self-healing polymer for use as building materials. Tiny capsules containing a healing agent are embedded in the polymer. When the material is damaged, the capsules rupture and release the healing agent, which repairs the cracks. The self-repairing capabilities of materials can contribute to reduced maintenance and material replacements costs as well as increased durability. Self-repairing materials can also be made lighter, resulting in reduced embodied energy and greenhouse gas production.

x-ray of legs
close-up of self-healing polymer

Inspired by biological systems that heal themselves when damaged, a self-healing polymer, created at the Beckman Institute, University of Illinois is being applied to the development of a structural polymeric building material, such as cladding, with the ability to self-heal cracks.


The Biomimicry Institute, a not-for-profit organization that promotes learning from and then emulating natural forms, processes, and ecosystems to create more sustainable and healthier human technologies and designs, suggests that the design team look at nature as "model, measure, and mentor." There are hundreds of technologies inspired by proven design systems existing in nature. One can become more familiar with these examples by broadening and deepening an inner awareness of nature.

AskNature, developed by the Biomimicry Institute, is a free, open source, online project designed to inspire innovation and technologies that create conditions conducive to life. To accomplish this, AskNature is organizing the world's biological literature by function along with providing access to biological blueprints and strategies, bio-inspired products and design sketches, and access to experts to talk with and collaborate with to solve problems. To utilize the tool and apply this broader method of thinking into a building project, begin by asking:

  • How would nature solve green building challenges?
  • How does life make things?
  • How does life make the most of things?
  • How does life make things disappear into systems?

The Biomimicry Guild, in collaboration with other organizations, developed a practical design tool called the Biomimicry Design Spiral that uses nature as a model. This tool outlines guidance using the following steps to apply the tool effectively and systematically to the creative process. Below are listed the basic steps in that process.

  • Identify—Develop a Design Brief of the human need.
  • Translate—Biologize the question; ask the design brief from Nature's perspective.
    Ask "How does Nature do this function?" "How does Nature NOT do this function?"
  • Discover—Look for the champions in nature who answer/resolve your challenges.
  • Abstract—Find the repeating patterns and processes within nature that achieve success.
  • Emulate—Develop ideas and solutions based on the natural models.
    (Nature as measure is embedded in the evaluate step of the Biomimicry Design Spiral.)
  • Evaluate—How does your design align against your design brief and Life's Principles, the successful principles of nature?

(For more detailed information on this process, see The power of the Biomimicry Design Spiral.)

As noted by Biomimicry 3.8, since nature works with small feedback loops constantly learning, adapting, and evolving their environments and processes, building design professionals can also benefit from this way of thinking. This would enable designs to evolve in repeated steps of observation and development, uncovering and/or seeing new lessons, and applying these constantly throughout the exploration of a design.

By applying this process, it is possible to create buildings, products, and/or processes that are inherently more sustainable, perform better, use less energy, eliminate or create less waste, reduce material costs, and open up opportunities to create new products and potentially new markets by spawning innovation.


Esplanade Theater

The Esplanade Theater and commercial district in Singapore, designed by DP Architects and Michael Wilford, hosts an elaborate building skin which influenced the look and function of the interiors, inspired by the multi-layered Durian plant with its formidable thorn-covered husk. The Durian plant uses its semi rigid pressurized skin to protect the seeds inside, just as the building exterior is part of an elaborate shading system that adjusts throughout the day to allow sunlight in but protects the interiors from overheating.

3 side-by-side images: left is the exterior view of the Esplanade Theater and commercial district in Singapore, center is the shaded interior of the Esplanade Theater where the wall surface is much like the Durian plant, and right is a close up image of the Durian plant

Eastgate Centre

Termites have an amazing ability to maintain virtually constant temperature and humidity in their termite mounds in Africa despite outside temperatures that may vary from 35°F to 104°F (3°C to 42°C). Researchers initially scanned a termite mound and created 3-D images of the mound structure, which revealed construction that can influence human building design. The Eastgate Centre, a mid-rise office complex in Harare, Zimbabwe, uses a form of passive cooling similar to how the termite mound works and stays cool without air conditioning and uses only 10% of the energy of a conventional building its size.

termite mound
Eastgate Centre skyline, Zimbabwe

A termite mound (left) which inspired the design of the Eastgate Centre in Zimbabwe (right).

Dives in Misericordia Church

In the early 1990s, scientists at the Italcementi Group in Bergamo, Italy, produced a self-cleaning concrete that keeps buildings from tarnishing from pollutants in the atmosphere. Photocatalytic particles in the cement oxidize the pollutants coming into contact with the hardened concrete surface, that help to maintain the original surface appearance, a very white concrete, over time. The idea was inspired in part by self-cleaning plants and contributes to the reduction of maintenance and repair costs to the building.

exterior photo of Misericordia Church, Italy

This church near Rome, Italy, designed by Richard Meier, incorporates self-cleaning concrete, one of the first to use the technology.

Emerging Issues

Research and analysis continues to grow in this field with more species documented from which to draw inspiration. Below are a few of the recent studies that are continuing to influence design, engineering, science, and technology.

Spiders can create web silk as strong as the Kevlar used in bulletproof vests. Engineers could potentially use such a material—if it had a long enough rate of decay—for suspension bridge cables, artificial ligaments for medicine, and many other purposes. (See The Biomimicry Institute for more information and the latest research at

Tensile structure bridge in Brazil
World's largest solar powered tensegrity pedestrian and cycle bridge in Brisbane, Queensland

Tensile structure bridge in Brazil

World's largest solar powered tensegrity pedestrian and cycle bridge in Brisbane, Queensland

line drawing/study to create an efficient wind turbine

Study for the creation of a more effective and efficient wind turbine.
Image Credit: Biome Renewables

Other research has proposed adhesive glue from mussels, solar cells made like leaves, fabric that emulates shark skin, harvesting water from fog like a beetle, and more. Quieter, less disruptive wind turbines were inspired by owl feathers and maple leaves.

Recently, researchers from ETH Zurich, the Swiss Federal Institute of Technology, have been incorporating biomimetic characteristics to structural engineering problems in an adaptive deployable tensegrity bridge (tensional integrity based on a synergy between balanced tension and compression components). The bridge can carry out self-diagnosis and self-repair utilizing a machine learning algorithm.

Relevant Codes and Standards

While many codes, standards, and regulations serve as a starting point for establishing sustainability goals and targets, it is possible that by first seeking the sources of inspiration and examples from nature, the design community may improve upon these standards and create models that go beyond any of those outlined below.

Additional Resources




  • Design and Nature II by Ed M. W. Collins et. Al. 2004. Contains proceedings of 2nd international conference on design and nature. Brings together researchers around the world on a variety of studies involving nature's significance for modern scientific thought and design.


  • Buckminster Fuller's Universe by Lloyd Sieden. 1989. Explores Fuller's examination of significant underlying principles in nature.


  • Biomimicry: Innovation Inspired by Nature by Janine Benyus. 1997. Demonstrates how nature's solutions to survival needs have been the creative jumping-off points for individuals seeking solutions to human challenges, developing, or simply revitalizing processes or products.
  • Exploring the Way Life Works: The Science of Biology by Mahlon B. Hoagland., et. Al. 2001. Comprehensive overview of the natural world from patterns in life to energy and evolution. Devoted to the wonder and unity of the natural world.
  • Life Itself: Exploring the Realm of the Living Cell by Boyce Rensberger. 1998. A digest of everything currently known about the mechanisms by which living cells perform their myriad of tasks.
  • Natural Earth, Living Earth by Miranda Smith and Steve Parker. 1996. Full-color photography shows how living things interact with the functions and conditions of the earth.
  • The Way Nature Works by Editor Jill Bailey. 1992. Drawing on a series of questions that children might ask, a team of scientists proposes answers in this manual for adult readers. They address large issues such as atmospheric phenomena, ecosystem relationships, and animal communication with brief essays, each well illustrated with charts, diagrams, and photographs.
  • The Work of Nature: How the Diversity of Life Sustains Us by Yvonne Baskin, et al. 1997. Baskin examines the threats posed to humans by the loss of biodiversity. Biodiversity is much more than number of species—it includes the complexity, richness, and abundance of nature at all levels.


  • Biomineralization by Stephen Mann. 2002. Describes a new type of chemistry that brings together soft and hard material for the design of functionalized inorganic-organic materials.
  • Green Chemistry: Theory and Practice by Paul T. Anastas, John Charles Warner. 2000. Overview of the design, development, and evaluation process central to green chemistry. Explores alternative solvents and catalysts, benign syntheses and biomimetic principles, among many other topics.


  • Biologic: Designing with Naturel to Protect the Environment by Design by David Wann. 1994. Guide to designing our way out of the environmental conundrum we are in by taking a system's view of technology—asking, "how does it fit in?"
  • Deep Design: Pathways to a Livable Future by David Wann. 1996. A new way of thinking about design by asking: "What is our ultimate goal?" The idea is to produce designs that are sensitive to living systems.
  • Design for the Real World, Human Ecology and Social Change by Victor Papanek. 1984. One of the world's most widely read books on design. Author provides a blueprint for sensible, responsible design.
  • Design in Nature: Learning from Trees by Claus Mattheck. 2004. Describes and verifies external shape laws in nature. Also explores self healing. Many optimization examples.


  • Natural Capitalism: Creating the Next Industrial Revolution by Paul Hawken, Amory Lovins, L. Hunter Lovins. 2000. Three top strategists show how leading-edge companies are practicing "a new type of industrialism" that is more efficient and profitable while saving the environment and creating jobs.
  • Nature of Economies by Jane Jacobs. 2000. Dissects relationships between economics and ecology through a multilayered discourse around the fundamental premise that "human beings exist wholly within nature as part of a natural order."


  • Biomimetics: Biologically Inspired Technologies by Editor Yoseph Bar-Cohen. 2005. Explores biological models useful to engineering and the challenges awaiting future research.
  • Nature and Design by Ed M. W. Collins, et. Al. 2004. Comprehensive introduction to common scientific laws of both the natural world and engineered worlds. Features mathematics, physics, chemistry, thermodynamics, biomimicry, mechanical engineering and history of science.


  • On Growth and Form: The Complete Revised Edition by D'Arcy Wentworth Thompson. 1992. Classic work of biology and modern science sets forth seminal "theory of transformation"—that one species evolves into another not by successive minor changes in individual body parts but by large-scale transformations involving the body as a whole.

General Science

  • Basic Nature by Andrew Scott. 2002. Fundamental concepts of modern science.
  • Nature and Design by Editor M. W. Collins, et. Al. 2004. Comprehensive introduction to common scientific laws of both the natural world and engineered worlds. Features mathematics, physics, chemistry, thermodynamics, biomimicry, mechanical engineering and history of science.


  • Invention by Design by Henry Petroski. 1996. Philosophical and cultural study of the process of invention including case studies.
  • Nature: Mother of Invention by Felix Paturi. 1976. The book provides an overview of bio­inspiration, noting that scientists can learn from natural structures of all sizes and put their knowledge to use in a number of ways, often by studying nature at the nanolevel, where the distinction between nature and human technology is often blurred.
  • The Gecko's Foot: Bio-Inspiration, Engineering New Materials and Devices from Nature by Peter Forbes. 2005. Presents technologists' pure research into nano-anatomy, followed by their applied and, as many entrepreneurs hope, commercial mimicry of nature's ingenuity.

Material Science

  • Biomimetic Materials Chemistry by Stephen Mann (Editor). 1995. Provides a unified, up-to date approach to the applications of biological concepts, products and processes in material research.
  • Biomineralization by Stephen Mann. 2002. Describes a new type of chemistry that brings together soft and hard material for the design of functionalized inorganic-organic materials.
  • Structural Biomaterials: (Revised Edition) by Julian F.V. Vincent. 1990. The book presents a biologist's analysis of the structural materials of organisms, using molecular biology as a starting point. It is an excellent introduction to the field which attempts to stimulate interest in biomaterials.


  • Life's Devices: The Physical World of Animals and Plants by Steven Vogel, Rosemary Calvert. 1988. This is an entertaining and informative book that describes how living things bump up against non-biological reality.
  • Life in Moving Fluids by Steven Vogel. 1996. This book is for biologists who want to come to the beginning of a quantitative understanding of a wide variety of adaptations, and for general readers who want to see how fluid mechanics work in a varied and often surprising context.
  • Structure, Form, Movement by Heinrich Hertel. 1963. Explores various means in which nature manifests structure, form, and movement.
  • The Biomechanics of Insect Flight by Robert Dudley. 2002. Explores insect physiology, functional morphology, paleontology, aerodynamics, behavior, and ecology. The book excels as a synthesis of all these fields, and as a unique source of information on the subject of insect flight as a whole.


  • The Power of Limits: Proportional Harmonies in Nature, Art and Architecture by Gyorgy Doczi. 1981. The Power of Limits was inspired by the continuity of natural patterns. The book explores how certain proportions occur over and over and are also repeated in how things grow and are made.
  • The Self-Made Tapestry: Pattern Formation in Nature by Philip Ball. 2001. This deep, beautiful exploration of the recurring patterns that we find both in the living and inanimate worlds will change how one thinks about everything from evolution to earthquakes.
  • The Shape of Life by Nancy Burnett. 2002. Based on the National Geographic -Sea Studios Foundation series seen on PBS. Every animal that ever lived fits into one of only eight basic body plans. Those basic forms have given rise billions of species of animals and continue to define the shape of life on Earth.


  • The sustainability revolution: portrait of a paradigm shift by Andres Edwards. 2005.
  • Resilience thinking: sustaining ecosystems and people in a changing world by Brian Walker. 2006.

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