top of page

Designing Like Nature: Biomimicry and the Next Chapter of Packaging in India

  • Writer: Nitin Virkar
    Nitin Virkar
  • Feb 26
  • 4 min read
Classroom photos of the learning sessions with peers and teams

Background


How do movements begin?


It is a question that has stayed with me through different phases of my life — as a potter, a designer, and now as a Chief Creative Officer. Movements rarely begin with technology. They begin with attention.


The trigger for this line of thought came when I encountered the work of the artist Hubert Duprat. His practice is extraordinary not because of what he makes, but because of how he makes it. He collaborates with living organisms — specifically caddisfly larvae — allowing them to construct protective cocoons from gold flakes and precious stones. The larvae behave exactly as they would in nature, except the material palette has changed. The result is sculpture, but the method is observation.


The larvae normally build their cases using sand, twigs and debris found in their surroundings. Duprat did not impose a design onto them. He understood an instinct and redirected it.


That, in essence, is how most meaningful innovation happens — observation first, invention later. Curiosity connects dots. A use case meets a naturally occurring solution.

We see this repeatedly across disciplines:

  • Shark skin inspiring drag-reducing swimwear

  • Honeycomb geometries informing lightweight construction panels

  • The kingfisher’s beak guiding the aerodynamic redesign of high-speed trains

  • Mycelium growth patterns influencing urban network planning


Biomimicry, simply put, is the act of studying how nature solves problems and applying that logic to human design. Not copying the appearance, but understanding the mechanism.

The result is often a solution that is not only more efficient in performance but also more resource-intelligent than conventional industrial approaches.


The discipline has existed conceptually for centuries, but its application was limited by technology. Today, advances in material science, computation and data analysis allow us to interpret biological systems more precisely. Biomimicry is therefore moving from inspiration to methodology — informing aerospace, medicine, manufacturing processes and increasingly, circular economic systems.


The most familiar examples are physical imitations — Velcro inspired by burdock seeds, or folding solar panels modeled on beetle wings. But nature operates far beyond form. It is chemistry, behaviour, symbiosis, signalling and adaptation.


For a packaging designer in India, this becomes deeply relevant. The search for sustainable materials and processes is constant. Designers are willing — often eager — to pursue environmentally responsible solutions. What is missing is not intent, but infrastructure, economic viability and sustained research support.



Emerging Examples


Recent innovations show how biomimicry is shifting from theory to practice:


GoneShells — Tomorrow Machine 

A potato-starch bottle designed to behave like fruit skin. It can be peeled, composted, dissolved in water, or even eaten. The idea is radical not because it is biodegradable, but because its lifespan matches the product it contains. Packaging stops existing after it has served its purpose.


“Rewild the Run” Footwear Concept

The outsole mimics epizoochory — the natural process where seeds attach to animal fur and travel across ecosystems. The wearer unknowingly disperses seeds while moving through urban landscapes. The project reframes design as ecological participation rather than consumption.


Beaver-Fur Inspired Insulation Materials

Beaver fur traps air pockets that provide insulation while keeping the animal dry. Materials based on this principle could be used for temperature-sensitive packaging — particularly pharmaceuticals, an important need in a country with extreme climate variation.


Enzyme-Embedded Plastics (Intropic Materials)

Here, biomimicry operates at the molecular level. Enzymes are embedded within plastics so that, after use, the material breaks down into biodegradable molecules without forming microplastics. The degradation process occurs under accessible conditions such as compost or warm water environments.



Challenges


Despite its promise, biomimicry in packaging faces real obstacles.


Scalability

Natural systems operate at microscopic precision. Industrial manufacturing operates at massive volumes. Translating one into the other requires entirely new production techniques. Many biomimetic structures rely on self-assembly or biological growth processes that current packaging lines are not designed to handle.


Cost

Research, prototyping and testing require long investment cycles. Businesses hesitate because cost parity with conventional packaging is not immediate. Supply chains for bio-derived materials are still inconsistent.


Knowledge Gaps

Biomimicry requires interdisciplinary collaboration — designers, biologists, chemists and engineers working together. Without shared understanding, nature risks being simplified into aesthetics instead of applied science.


Manufacturing & Acceptance

Uniform production quality, regulatory approval and consumer trust remain hurdles. A material may be sustainable, but if performance reliability is uncertain, adoption slows.



New Directions — Questions Worth Asking


Observing nature honestly often leaves us with more questions than answers — and that is productive.

  • Could e-commerce packaging learn from the pomelo fruit, whose internal structure protects pulp even after heavy impact?

  • Could fragile packaging borrow principles from the woodpecker’s skull, which protects its brain from repeated shock?

  • Could colour signalling in packaging mimic how fruits indicate ripeness?

  • Could material folds follow the vein logic of leaves rather than decorative imitation?

  • Could water distribution systems learn from natural capillary networks?

Biomimicry invites us to move beyond copying appearance and toward understanding behaviour.



Why It Matters for India


Biomimicry is not only a sustainability strategy — it is a design philosophy integrating structure, material and communication.


For India, the implications are significant:

  • Material efficiency reduces cost

  • Distinct structures elevate brand perception

  • Biological compatibility addresses waste realities


Packaging is where form and function visibly meet the consumer. It is also where our waste problem becomes most visible.


For industrial designers, biomimicry offers new structural logic.

For graphic designers, new visual languages.

For brands, meaningful differentiation.

For ecosystems, relief.


Nature has already solved many problems packaging designers struggle with — protection, signalling, preservation and reintegration. Our responsibility is not to imitate nature’s appearance, but to translate its intelligence.

India, with its biodiversity, cultural familiarity with natural materials, growing design capability and increasing R&D investment, is uniquely positioned to lead this shift. If we build infrastructure alongside innovation, biomimicry can become not just a design approach but a movement — one that aligns commerce, culture and ecology.


Movements begin with attention. Perhaps the next one begins with designers learning to observe more carefully.

 
 
 

Comments


bottom of page