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Evonik’s work with 3D printing materials has taken it into the realm of biocompatible implants, potentially leading to more effective treatment for people with serious bone injuries or diseases. The company’s 3D printing materials can be used for a lot more, however, as they’re highly versatile.
Recently Evonik began looking into drones as part of its plant maintenance program. The company 3D printed a multicopter, or a drone with four or more rotors, and flew it over its Wesseling site. The drone transmitted live images of the water tower and pipe bridges to a monitor on the control unit, demonstrating its efficacy in providing support for maintenance work.
“Overall, the experiment showed that drones are ideally suited as support for projects such as maintenance work,” Evonik said.
The drone was 3D printed from Evonik’s VESTOSINT powder, a family of polyamide 12-based materials with strong mechanical properties, good chemical resistance and high fusion point that make them well-suited for sintering processes.
“Printed from powder: the parts of the drone painted white and red are made of polyamide 12 powder from Evonik and were manufactured using a 3D printing process,” the company describes its creation.
[/vc_column_text][vc_column_text]Drones, overall, seem to go well with 3D printing. The technology is a quick way to create a custom drone, and to do so cheaply. That’s good news for anyone who, like Evonik, is considering using unmanned aerial vehicles in large-scale maintenance operations, or for many, many other purposes. One of the most important functions of drones is for disaster relief purposes, and in some proposed cases, drones many not only be 3D printed but might be capable of 3D printing, creating emergency housing in areas where responders can’t reach.
Drones also lend themselves well to research purposes, as in the case of an organization using drones to study whales in a non-invasive way. In this case, a drone flies over a whale as it surfaces and gathers the water expelled from the whale’s blowhole; this allows scientists to obtain the same information they would typically receive from shooting the whale with a sampling dart, which can be a traumatic experience for the whale. This brings up many possibilities for the use of drones to study wildlife without having to get too close to them.[/vc_column_text][vc_column_text]
Speaking of wildlife, the partially 3D printed Bat Bot is a marvel of engineering that two universities created – a drone inspired by the natural characteristics of bats. The drone was designed as an alternative to traditional quadcopters, to be used in urban areas or other cramped environments. Bat Bot was designed to be used for everything from search and rescue to personal assistance.[/vc_column_text][vc_column_text]The military uses of drones can’t be ignored, either – they’ve already become critical for surveillance and supply delivery, and soldiers are beginning to 3D print their own with more frequency. Like in disaster relief, drones in the military can be used to go into areas that aren’t accessible or safe for humans.[/vc_column_text][vc_column_text]
There’s been a lot of talk about drones and their place in the future, and it’s widely agreed-upon that the place of drones is going to be a significant one. Projected futures imagine drones everywhere, as prevalent as cars. Already we’re seeing drones dropping by people’s houses to drop off a pizza or some doughnuts.
Is 3D printing speeding adoption of drones across industries and across the world? Almost certainly. Again, 3D printing means drones are easier, faster and cheaper to make – and because they’re so easy and inexpensive to create, bigger risks can be taken with their design and their usage, meaning more creative applications and the potential for that heavily drone-populated future to arrive sooner than anticipated.[/vc_column_text][/vc_column][/vc_row]