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New programmable material breakthrough lets plastic flowers bloom

Who needs to buy real flowers any longer when plastic ones are good enough?

Key takeaways

  • Shape-shifting objects can now have their own version of a biological clock, thanks to a new material that transforms at a given time.
  • Morphing materials are interesting because they allow objects to change shape, and thus function.
  • A small proportion of links between molecules in a polymer are permanent, allowing the material to act like a spring, snapping back to its original form when stretched and released, like a piece of rubber.
Cite or link to this article

Griffin, M. (2016) 'New programmable material breakthrough lets plastic flowers bloom', 311 Institute, 1 October. Available at: https://www.311institute.com/researchers-get-plastic-flowers-to-bloom/ (Accessed: 1 October 2026).

Tick tock. Shape-shifting objects can now have their own version of a biological clock, thanks to a new material that transforms at a given time.

Morphing materials are interesting because they allow objects to change shape, and thus function. But they typically need a trigger to start morphing, like a change in light levels, temperature or pH. Now Sergei Sheiko from the University of North Carolina at Chapel Hill and his colleagues have created a type of putty with an internal clock that allows it to transform over time.

“In certain situations, like inside your body or in space, external triggers are not permissible or are ineffective,” says Sheiko.

“You simply want an object to change shape at a given moment.”

 

The team started with a conventional soft polymer then tweaked its molecular structure. A small proportion of links between molecules in a polymer are permanent, allowing the material to act like a spring, snapping back to its original form when stretched and released, like a piece of rubber. But most of the bonds are shape-shifting, breaking and rearranging themselves over time. The rate of shape shifting can be modified, allowing the researchers to control how the material changes over the course of several hours.

“Most bonds snap in a split second, so our goal was to extend their lifetime,” says Sheiko.

To demonstrate the concept, the team used the material to create a delivery box which opened automatically on one side when it reached its destination. But the morphing polymer is likely to be more useful for designing medical implants that are folded up for insertion then change shape inside the body.

“It has great potential for a range of applications, especially in biomedical engineering,” says Michael Kessler from Washington State University in Pullman, who also develops transformable materials.

Designing complex shapes proved difficult, but the team came up with a workaround. They found that intricate designs could be assembled from building blocks that could each be programmed to change at different times.

“Nobody has ever done this before,” says Sheiko. Their most sophisticated design is an artificial flower with individually programmed petals that blooms autonomously.

Programming the material to change at a constant rate was easy. But Sheiko and his team struggled to introduce a dormant period or to accelerate change at certain times. Although they didn’t find a way to modify the timing mechanism for this purpose, giving an object an extra ‘skin’ solved the problem. By adding a water-soluble shell, and tweaking its thickness based on the desired time delay, an additional clock could be added to the system when dropped in water.

“We plan to explore this further,” says Sheiko.

311 Intelligence

What this means for your organisation

Change without a trigger.

Most morphing materials need light, heat or pH changes. A built-in clock works where triggers are not possible, such as inside the body. Medtech teams should explore implants that unfold on their own.

Building blocks enable complexity.

Complex shapes came from blocks that each change at set times. Modular design makes programming simpler. Product designers should think in programmable parts.

Packaging could act on its own.

A container that opens at its destination hints at smart logistics. Timed materials could cut handling steps. Logistics and packaging firms should test simple uses first.

Three questions for your next leadership meeting

  1. Where could self-timed materials replace mechanical parts for us?
  2. Could implants that unfold on schedule improve our procedures?
  3. Which packaging tasks could timed materials automate?

The trends and technologies behind this story

From the 311 Starburst, the 311 Strategic Intelligence Unit’s map of the technologies and trends shaping the next 50 years.

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Analysis by the 311 Strategic Intelligence Unit, from Matthew Griffin’s article and 311 data. First published on Fanatical Futurist.

FAQ

Why does this matter?

Who needs to buy real flowers any longer when plastic ones are good enough?

Matthew Griffin

About the author

Matthew Griffin Founder, President and Futurist, 311 Institute

Matthew Griffin is a multi-award winning Futurist and expert in Disruption and Innovation, Geopolitics, Leadership, and Technology, who NASA have described as a "walking encyclopaedia of the future" and a "futurist Polymath."

Read full bio

Matthew Griffin is a multi-award winning Futurist and expert in Disruption and Innovation, Geopolitics, Leadership, and Technology, who NASA have described as a "walking encyclopaedia of the future" and a "futurist Polymath." 17-time best selling author of the "Codex of the Future" series, Matthew is the Founder, President and Futurist of the 311 Institute, a global Futures and Deep Futures advisory firm working with royal households, world leaders, G7, G20, and G77 governments, NGOs, and multi-national mid and mega cap firms to help them explore, shape, and lead the next 50 years of business and society.

An award-winning YouTube creator with over a million followers, with an unrivalled global reach and impact, Matthew is a highly sought-after international keynote speaker, lecturer, and mentor who collaborates with global leaders through the United Nations Alliance of Civilizations (UNAOC) and United Nations General Assembly (UNGA) to shape pivotal initiatives such as the UN’s AI for Humanity programme, the United Nations Conference of the Parties (UN COP), and the World Economic Forum in Davos.

As the former Global Head of Cloud, National Security, and Enterprise Sales for companies including Atos, Dell-EMC, and IBM, Matthew has a proven track record of building multi-billion dollar business units and turning failing divisions into market leaders. His ability to identify, analyse, and communicate the implications of hundreds of emerging technologies and trends is unparalleled, and his insights are trusted by many of the world’s most respected organisations, including ABB, Accenture, Adidas, AON, ARM, BCG, Centrica, Citi, Coca-Cola, Dentons, Deloitte, Dow Jones, EY, Google, KPMG, Lego, Legal & General, LinkedIn, Microsoft, PepsiCo, Qualcomm, RWE, Samsung, Siemens AG and Siemens Energy, T-Mobile, UBS, VISA, Walmart, Workday, Worldpay and many others.

Regularly featured in the global media including the AP, BBC, Bloomberg, CNBC, Discovery, Forbes, Khaleej Times, Telegraph, TIME, ViacomCBS, WIRED, and the WSJ, Matthews mission is to help organisations create a fair and sustainable future whose benefits are shared by everyone irrespective of their ability, background, or circumstances.

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Sources and further reading

  1. Sheiko chem.unc.edu
  2. Faculty mme.wsu.edu

Source: first published by the 311 Institute on 1 October 2016. Cite as: Griffin, M. (2016). New programmable material breakthrough lets plastic flowers bloom. 311 Institute. https://www.311institute.com/researchers-get-plastic-flowers-to-bloom/

You are welcome to quote this article with credit and a link to the original.

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