A new, faster 3D-printing method is inspired by Jackson Pollock.


Can a machine paint like Jackson Pollock? According to a team out of Harvard, the answer is yes. These scientists have combined artificial intelligence and physics to invent a 3D-printing technique that replicates Pollock’s iconic paint-flinging approach. However, their ultimate goal is not to design a Pollock driven by computer algorithms, but to print complex shapes more quickly.

Pollock’s method involved placing canvases on the floor and dripping, drizzling, and pouring paint onto them from above. He relied on the instability of the paint as it buckled, folded, and coiled under the force of gravity, creating intricate patterns. The Harvard researchers leveraged the same principles of fluid dynamics to create their 3D-printing technique.

Current 3D-printing methods involve placing a nozzle very close to the surface and following a specific print path. While this works well, it can be slow and limits creative possibilities. Pollock’s technique allowed for natural fluid instability, resulting in unexpected splatters and movements. By using gravity to their advantage, the researchers were able to print larger lengths than they could physically move.

One of the most significant breakthroughs of this technique is the ability to vary the diameter of the printed material by adjusting the height and rate of deposition. This adds a new level of flexibility and creativity to the printing process.

The team trained an AI to manipulate the nozzle, mimicking Pollock’s paintings and even writing in cursive 2.5 times faster than traditional 3D-printing. They primarily used viscous silicone oil filaments in their experiments but also demonstrated the technique’s potential for printing on edible surfaces by decorating a cookie with chocolate syrup.

The creative potential of this approach has excited many experts in the field. It brings unpredictability and artistic flair to a printing method that is generally focused on precision and accuracy. The resulting prints have a more human-made aesthetic than machine-made, adding an element of artistry to the process.

The researchers believe that their approach could be adapted to print on complex, non-planar substrates such as spheres. By combining fluid simulations and deep reinforcement learning, they have made significant strides in replicating the dynamics of fluid coils.

While the goal was not to create a computer-driven Pollock, this research opens up new possibilities for faster and more creatively versatile 3D-printing techniques. It bridges the gap between art and technology, pushing the boundaries of what can be achieved through AI and physics.

Exploring the Possibilities of 3D Printing at a Distance: The Intersection of Art and Science

Imagine a world where art and science merge seamlessly, where innovative technologies enable us to push the boundaries of creativity and exploration. In this brave new world, an unexpected connection has emerged between abstract expressionist painter Jackson Pollock and the cutting-edge field of 3D printing. While it may seem like an unlikely pairing at first glance, the concept of “printing at a distance” has captivated the imagination of researchers and art enthusiasts alike.

Traditionally, 3D printing involves building objects layer by layer using a liquid resin that solidifies when exposed to specific wavelengths of light. This process has revolutionized manufacturing and prototyping, allowing for intricate designs and complex structures to be created with ease. However, a recent breakthrough has expanded this technology to include more complex fluids, such as liquid polymers and pastes, and the stacking of multiple layers.

Dr. Jennifer Dickinson, a materials scientist at the forefront of this research, envisions a future where this technique could revolutionize tissue engineering. She believes that it “could be used to print collagen scaffolds out of liquid biopolymers which mimic the more natural structures found in the body.” Imagine the possibilities of creating custom-made implants and organs that seamlessly integrate with our own biological systems, all made possible through the fascinating world of 3D printing.

The concept of “printing at a distance” has its roots in the art world, specifically in the work of Jackson Pollock. Known for his unique painting style characterized by drips and splatters of paint, Pollock’s artistic process involved a physical distance between himself and the canvas. He would move around the canvas, sometimes even walking on it, allowing gravity and momentum to guide the flow of the paint. This spontaneous and unpredictable method resulted in mesmerizing and vibrant compositions.

Drawing inspiration from Pollock’s artistic technique, researchers have developed a technology that captures the essence of his creative process. By using robotic arms and advanced algorithms, they have found a way to precisely control the movement of the printer head, allowing for the creation of intricate patterns and designs from a distance. This transformation of a traditional artistic technique into a scientific endeavor has sparked the fascination of the world.

As the research into “printing at a distance” continues, the world eagerly awaits the next chapter in this captivating intersection between art and science. The potential applications in tissue engineering and other fields are vast, offering a glimpse into a future where imagination knows no bounds. Whether it’s the creation of biocompatible scaffolds or the exploration of new artistic expressions, the possibilities are limited only by our own creativity and innovation.

So, let us marvel at the fusion of science and art, where the brush strokes of a legendary painter guide us in the technological advancements of the future. Who would have thought that the world of Jackson Pollock, with its chaotic bursts of creativity, could serve as a catalyst for groundbreaking discoveries? As we witness the ongoing fascination with Pollock’s work, we can only imagine the exciting possibilities that lie ahead in the realm of 3D printing at a distance.

Original source


“Why did the 3D printer go to therapy? Because it had too many layers of unresolved issues!”

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