Scientists Imitate the Octopus for Shape-Shifting Material

New “soft photonic skins” present breakthroughs
in materials science that can transform from flat
to 3D and camouflage – inspired by the octopus! 

 

Scientists Use Octopus Design Principles for Novel Shape-Shifting Material

by Dr. Sarah Buckland-Reynolds 

The marvels of octopus camouflage have long fascinated scientists and laypersons alike. Despite evolutionary explanations reducing the octopus’s coordinated camouflaging capabilities as merely the result of adaptive evolution, new biomimicry breakthroughs provide a hint on the internal complexities involved in producing such capabilities.  

A Stanford press release about the story, titled “Stanford scientists create shape-shifting material that changes color and texture like an octopus,” (7 Jan 2026),  elaborated on the breakthrough. A paper on this was published in the renowned journal Nature, by Stanford researchers Siddharth Doshi and colleagues.  

The breakthrough achieved using “soft photonic skins” as materials, produces dynamic texture and colour control to allow flat surfaces to appear in a 3D manner and vice versa, along with colour changes. The multiple applications of this “novel” technology highlight how human ingenuity attempts to replicate the extraordinary capabilities already present in creation. This reflection discusses how the intentionality and creativity inherent in octopus camouflage point to intelligent design rather than unguided evolutionary processes. 

The Scientific Breakthrough 

In introducing this scientific breakthrough, Doshi and colleagues directly attributed their inspiration to the already present capabilities of the octopus. In their words:  

“Inspired by dynamic modulation of cephalopod skin, we develop polymer films with programmable surface textures… enabling a higher level of dynamic control over visual appearance… Octopuses and cuttlefish are famous for their ability to blend seamlessly into their surroundings. They can quickly alter both the color and texture of their skin, a capability which scientists have long tried to replicate in man-made materials.”  

The specific functionality inspired by cephalopod skin is the dynamic ability to change both texture and colour, allowing the material to blend seamlessly into its environment.  

The fact that this capability was one that engineers have “long tried to replicate” demonstrates the extraordinary complexity of the processes involved in cephalopod camouflage. To mimic these processes, Doshi and colleagues had to apply advanced nanotechnology, electron-beam lithography, and AI systems to approximate what the octopus does naturally and instantaneously. 

How Does the Marvel of Octopus Camouflage Work? 

Biologically, the amazing capabilities of octopuses to camouflage and change apparent texture and colour are due to three specific types of specialized cells: chromatophores, iridophores, and leucophores. These cells allow them to manipulate light, color, and texture. As Siddharth Doshi noted in the pree release:  

“These animals can physically change their bodies at close to the micron scale, and now we can dynamically control the topography of a material at this same scale.”  

The precision and coordination required for such transformations are staggering, as the octopus not only alters its appearance but does so in real time, responding to environmental cues with remarkable accuracy. 

Despite the complexity, evolutionary biologists reduce these capabilities as the product of adaptive evolution. They attribute the development of these cells to natural selection favouring octopuses with specialized skin cells and neural control that improved survival by avoiding predators. They argue that over millions of years, octopuses then developed chromatophores, iridophores, and leucophores, coordinated by complex sensory and nervous systems, enabling rapid colour and texture changes that enhance their ability to thrive in diverse marine environments. However, this explanation raises several questions, such as: 

• If these camouflage systems truly arose step by step, how could half‑formed chromatophores or incomplete neural circuits provide any survival advantage at all? 

• How would a patchy, inconsistent camouflage system fool a predator, and why would natural selection preserve such a disadvantage? 

• How could random mutations coordinate pigment cells, iridophores, leucophores, and muscular control simultaneously, when each part is useless without the others? 

While these questions continue to pose a struggle for evolutionists, from a Biblical creationist perspective, such capabilities reflect intentional design, showcasing creativity beyond human comprehension. 

More Critiques of Evolutionary Explanations 

In addition to the limitations of an explanation of octopus’ camouflage through natural selection and adaptation, the interdependence of these components is worth examination.

Irreducible Complexity: The ability to change both colour and texture simultaneously requires coordination across multiple biological systems with multiple interdependent components, including but not limited to sensory input, neural processing, pigment cells, and muscular control. As each of these functions is reliant on the others simultaneously for the camouflage to be functional, this is an example of irreducible complexity. Such an interdependent system therefore undermines evolutionary explanations as each part must function together from the start. 

Design Challenges: In even the synthetic mimicry of these capabilities, the authors highlight the challenges experienced in replicating such functionalities. As Doshi described, one challenge was that the scientists “…want to be able to control this with neural networks… automatically modulate it to match in real time.” The suggested solution was to integrate Artificial Intelligence into the system for it to function autonomously. If human engineers require AI and advanced nanotechnology to mimic these systems, how plausible is it that blind evolutionary processes produced them without foresight? 

Biomimicry and the Value of Creation 

The soft photonic skin breakthrough is merely one example of a rapidly growing field of biomimicry. If nature is merely the product of accidents and randomness, why should there be scientific interest in replicating these accidents, and why should such intentions require such rigour and efforts to replicate? 

Not only does the scientific rigour of these new materials testify to the intelligent design in the original octopus, but the vast meaningful applications of these functions further tell of the value of these technologies that are already existent in creation. 

In the press release, engineering and materials science professor and co-author Prof. Nicholas Melosh stated:  

“You can imagine all kinds of different applications…this innovation could lead to improved camouflage systems for both humans and robots, as well as flexible displays that change color for wearable devices.” 

Such applications underscore the value of the created world. The designs embedded in creation are not only functional for the creatures themselves but also serve as blueprints for human technology. The octopus’ camouflage therefore reveals divine creativity on many levels as it provides practical benefits for humanity. 

In this YouTube clip, watch an octopus change colors almost instantly!

The Octopus Points to the Glory of God! 

The marvels of octopus camouflage provide yet another breathtaking example of the beauty and wisdom woven into creation by the Creator. A crude, unautomated version attempting to replicate these capabilities took scientists such a long time to develop, further testifying the insufficiency of evolutionary explanations for a chance-design of the more complex prototype present in creation. 

As each example of biomimicry is developed, we should appreciate all the more the wisdom of God. As Job 12:7–9 exhorts:  

“But ask now the beasts, and they shall teach thee; and the fowls of the air, and they shall tell thee… Who knoweth not in all these that the hand of the Lord hath wrought this?”

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Dr. Sarah Buckland-Reynolds is a Christian, Jamaican, Environmental Science researcher, and journal associate editor. She holds the degree of Doctor of Philosophy in Geography from the University of the West Indies (UWI), Mona with high commendation, and a postgraduate specialization in Geomatics at the Universidad del Valle, Cali, Colombia. The quality of her research activity in Environmental Science has been recognized by various awards including the 2024 Editor’s Award from the American Meteorological Society for her reviewing service in the Weather, Climate and Society Journal, the 2023 L’Oreal/UNESCO Women in Science Caribbean Award, the 2023 ICETEX International Experts Exchange Award for study in Colombia. and with her PhD research in drought management also being shortlisted in the top 10 globally for the 2023 Allianz Climate Risk Award by Munich Re Insurance, Germany. Motivated by her faith in God and zeal to positively influence society, Dr. Buckland-Reynolds is also the founder and Principal Director of Chosen to G.L.O.W. Ministries, a Jamaican charitable organization which seeks to amplify the Christian voice in the public sphere and equip more youths to know how to defend their faith.