According to The Biomimicry Institute, biomimicry is the practice of studying and imitating nature’s strategies to solve human challenges in a sustainable way. It goes beyond simply copying nature—it’s about deeply understanding how life functions and applying those insights to design smarter solutions.

Biomimicry is guided by three core principles: Emulation, Ethical Responsibility, and Reconnection. These principles ensure that innovations inspired by nature not only solve problems efficiently but also support the health of our planet and reinforce our connection to the natural world.

Nature has already solved many of the problems we face today. By studying how plants, animals, and ecosystems function, we can apply those strategies to our designs. Whether it’s mimicking the way a beetle collects water from the air or designing buildings that regulate temperature like termite mounds, emulation helps us create solutions that are both innovative and efficient.

Biomimicry isn’t just about taking inspiration from nature—it also comes with a responsibility to protect and respect the natural world. When we borrow nature’s ideas, we must ensure our designs contribute to the well-being of life on Earth rather than harming it. This means creating solutions that reduce waste, conserve resources, and support biodiversity.

Humans are not separate from nature—we are a part of it. Biomimicry encourages us to step outside, observe, and develop a deeper appreciation for the natural world. By spending time in nature and understanding how ecosystems function, we can design solutions that work in harmony with life rather than against it.

In this blog we’ll be looking at a few examples of innovations that are inspired by the way nature thinks and functions.

The Japanese Bullet Train is a well-known example of biomimicry in engineering. Initially, the train created a loud sonic boom when exiting tunnels due to sudden air pressure changes. To solve this, engineers looked to nature for inspiration. They found their answer in the kingfisher, a bird that dives into water with barely a splash, thanks to its streamlined beak. By redesigning the train’s nose to mimic the kingfisher’s beak, they achieved a quieter, more efficient, and aerodynamically improved train.

Engineers once believed smooth blades were best for efficiency, but research on humpback whales proved otherwise. Their bumpy flippers, or tubercles, help reduce drag, increase lift, and prevent stall.

Inspired by this, scientists applied tubercle technology to wind turbines, airplane wings, and submarine fins, improving performance. 

There are companies around the world that are leading the way, designing quieter, more efficient, and more durable wind turbine blades. Even industrial ceiling fans using this tech to run 20% more efficiently!

In the extreme dryness of the Namib Desert, the darkling beetle has evolved a remarkable way to collect water. Its bumpy exoskeleton traps moisture from fog and dew, condensing tiny droplets and channeling them to its mouth for hydration.

Inspired by this survival strategy, Infinite Cooling (USA) developed a fog-catching system that captures evaporating water from industrial cooling towers. Since industries consume vast amounts of water, this innovation helps reduce waste and promote sustainable water use.

This small desert beetle has sparked big advancements in water conservation, offering a nature-inspired solution to global water challenges.

Inspired by nature and the journey of water from its natural resources, Jiva water uses biomimicry in all its innovative devices ranging from Yami, Yami G, Vipasa, Shubhra, Jahnavi, and Dihanga. Jiva Water Devices integrate proven research with advanced natural principles. 

Designed for optimal water vitality, sustainability, and long-term performance. We’ve created the world’s first water device that bio-mimics the natural flow of water, restoring its essential energy. By replicating nature’s design, we strengthen hydrogen bridges, increase water density, and reduce surface tension, enabling optimal hydration and absorption.