Five Trends That Will Shape Our 3D Printed Future

Will living in a 3D-printed future really be that much different than today? Who knows for sure?

Rick Smith | Fast Radius

Rick Smith

Rick Smith

Self-repairing pipes. Printed organs. Bulletproof t-shirts. Seriously?

In April I was asked to speak at the annual TED conference in Vancouver (following Bill Gatesgulp) on the topic of 3D printing production and its implications.

I have detailed my thoughts on why the shift to 3D printing production is not only likely but inevitable in articles one, two and three in this series for Forbes.

Now, let’s take a step into a fascinating future, where daily life will be shaped by several powerful forces directly related to 3D printing production.

What it will be like to live in a 3D-printed world? Imagine the effect of these five trends:

1. Localized Production For Consumer And Industrial Goods:

Biz Stone, Twitter’s co-founder, recently predicted that Nike could be a pure software company in ten years.

If this happens, it will be thanks to 3D printing production. In the future, everything you know will be made closer to you.

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In the future, everything you know will be made closer to you.

Let’s say one day at home you realize that one of the wheels on your dishwasher has broken. You simply look up the part on the Internet, print it out at home or at your neighborhood commercial 3D printer, and out comes the replacement part.

Your daughter outgrows her 3D-printed custom shoes? Drop the old pair in the material recycler and print out a brand new pair, one size larger.

Producing our own consumer goods, as in the example above, will make it much more convenient, affordable, and efficient to satisfy our household needs and wants. But the economic effect of localized commercial production on industry will be even more dramatic.

Around the world, digital 3D printing factories of various sizes and capacities will soon become connected in a global production network.

Referred to as direct digital manufacturing, this capacity to manufacture components and finished goods near their point of use will be much more efficient than today’s global sourcing.

Does your company participate in the global supply chain? Don’t get too comfortable.

Localized production will dramatically compress (or eliminate!) today’s supply chains.

PWC recently reported that roughly 40% of air and shipping cargo is under threat. The implications of this disruption on supply chains and all who participate in them are enormous.

[Also on Longitudes: 3D Printing Is About To Change The World Forever]

Rick Smith at TED2015 - Truth and Dare, TED University, March 16-20, 2015, Vancouver Convention Center, Vancouver, Canada. Photo: Bret Hartman/TED

Rick Smith at TED2015 – Truth and Dare, TED University, March 16-20, 2015, Vancouver Convention Center, Vancouver, Canada. Photo: Bret Hartman/TED

2. Custom Production Materials:

The ability to customize the materials used for production—even printing living tissue—will be truly transformative.

Doctors are already using 3d printing to create knee replacements customized for each patient.

Very soon, the material itself will contain pain medication and antibiotics designed to release slowly over time.

Visionaries like entrepreneur Dr. Daniel Stolyarov are experimenting with 3D printing using Graphene, a substance that is quite flexible, transparent, and yet is 100 times stronger than steel!

Is Superman’s bulletproof outfit becoming a reality? Yes, and so is printing of human cells (including stem cells) into complex functional living tissues.

These techniques are already being applied to address the need for tissues and organs suitable for transplantation.

3D bioprinting has the potential to completely reshape healthcare.

David Kolesky and Jennifer Lewis, Harvard University

David Kolesky and Jennifer Lewis, Harvard University

3. Nano-Printing: 

The picture above is of a 3D-printed lithium-ion battery, created by Jennifer Lewis and her team at Harvard University.

It works like a normal battery, except that this battery is the size of a single grain of sand!

Batteries like these may be used to power miniature medical devices, compact electronics or even tiny robots.

You’ve heard about the amazing advances in nanotechnology – the fabrication of incredibly small particles down to atoms and molecules?

Well, 3D nano-printing allows for rapid prototyping of micro and nano structures.

Applying 3D printing concepts to nanotechnology will make nanofabrication faster and more efficient, and therefore economically viable much sooner than most futurists ever envisioned.

3d printed future 3
Individual components are as small as 5 nanometers. (Image: L. Meza, L. Montemayor, N. Clarke, J. Greer/Caltech) [1]

4. Goal-Directed Design:

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What if a computer could automatically generate hundreds upon hundreds of variations of a design until it solves a specific problem?

3D printing allows for almost unlimited complexity in geometry and materials – so much so that humans become the limiting factor in taking full advantage of the possibilities.

But what if a computer could automatically generate hundreds upon hundreds of variations of a design until it solves a specific problem? This is the purpose of goal-directed design.

Currently, computer-aided design (CAD) tools are used to manually create, document and analyze designs.

But with goal-directed design, you start with your specific objectives for factors like strength, weight and durability, and the computer generates hundreds of design possibilities, evaluating and recommending the best designs for different objectives.

Combining 3D printing’s unlimited shape and material customization with powerful computing will lead to designs that no human could possibly have imagined.

In the future, the best designers will not be those who come up with the best designs; they will be the ones who are able to ask the computer the best questions.

[Also on Longitudes: 3D Printing and the New Economics of Manufacturing]

5. 4D Printing:

By now you can see where 3D printing will take us. But are you ready for 4D printing?

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They automatically react to our environments and use embedded micro sensors to send information back to your personal cloud.

With this new technology, you print a 3D object that at some future point can automatically self-assemble or change shape when confronted with a change in its environment, such as temperature or moisture. This is the fourth dimension.

This technology is being pioneered by Skylar Tibbits at MIT, and it has wide-ranging implications for consumers and industries.

Imagine a construction brick that only reaches its full weight and structure after water is added to it, at the exact location where it will be used.

Envision hydraulic pipes that automatically repair themselves if they are ever damaged.

Get ready to wear sneakers that become running shoes if you started running, or grow cleats if you walk on grass, or become waterproof if it starts to rain.

While this technology is still new, it promises to take 3D printing to an entirely new dimension.

Will living in a 3D-printed future really be that much different than today? Who knows for sure?

We will still put our shoes on one foot at a time. However, those shoes might be printed right in our homes, with complex shapes and custom material properties computer-generated based on our unique foot dimensions and precise usage patterns.

They may automatically react to our environments, and use embedded micro sensors to send information back to your personal cloud. goldbrown2

[1] L. Meza, A. Mateos, A. Zellhofer, D. Kochmann, and J.R. Greer “Hierarchy in 3-D Architected Meta-Materials Brings Resilience” Proc of the Nat’l Academy of Sciences doi/10.1073/pnas.1509120112 (2015).

This is a hierarchical architected nano-lattice fabricated by the Greer group. Here, the beam elements are constructed of self-similar unit cells in a fractal-like fashion. The self-similarity is not a requirement and these patterns can be arbitrary. These types of structural meta-materials were fabricated by using a combination of two-photon lithography, thin film deposition methods, and pattern transfer. The nanometer dimensions of constituent solid enable capitalizing on the size effect offered by nanomaterials and proliferating these useful properties onto macro scale in unprecedented fashion. Specifically, they enable the creation of materials with un-coupled properties, for example light weight, exceptional damage tolerance and strength, as well as tenability in thermal, optical, and electronic properties.


This post first appeared on Forbes. Part four of a four-part series. 

Rick Smith is co-founder and CEO of Fast Radius, a global leader in 3D printing and on-demand parts manufacturing. He is also the founder of the Global Coalition on Additive Manufacturing (GCAM).

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  1. tonyon

    …3D Bioprinting-Immortality… ((sugar cotton fibers produced by centrifuge machines are even finer…capillaries are between 2 tenth and 1 hundredth of a millimeter in diameter…perhaps… Could be used these machines adapted as “biocentrifuges” to make capillary micro-tubes with a biodegradable and binder yarn of sugar inside coated with endothelial cells?))… Network capillary-skeleton, porosity among adjacent cells, A FINE MESH OF FIBROUS CONNECTIVE TISSUE fastening the cells: collagen?…fibrin? a blood´s protein in salty water insoluble who forms the cell´s-subjection-mesh of blood-coagula… SUITABLE POROSITY: both capillary networks (blood and lymphatic) could have a natural unequal aleatory distribution (Better or Worse Equidistance in each organism, better or worse equal feeding to ALL tissue´s cells) of MESH´S HOLES (in blood capillaries: exit for plasma with O2, nutrients, leukocytes…or entrance for CO2. In lymphatic capillaries: entrance for surplus lymph with cellular refuses lactic acid, etc…who cause muscular fatigue). Maybe the better or worse equidistant porosity of skeleton-mesh cell´s-subjection in each capillary tube; besides of genetics: …size and quantity of mitochondria per cell (only are inherited the mother´s mitochondria…), distance of insertion´s point the tendon of a muscle from the articulation to a bone (lever law), etc…; a natural cause for to win or not to win a medal in Olympic Games.

  2. Pingback: How Automation and Tech Will Change Our Buildings | Longitudes

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