Bagpipes aren’t easy to play. I have a dim memory of trying to play them myself once when I was a very young child, when a relative who plays them let me try them out. I couldn’t get them to make a sound, and quickly wrote off that career idea. But even adults with pipe dreams don’t start out playing the full instrument. When a piper begins learning how to play the bagpipes, they typically start with what’s called a practice chanter, which is a single pipe that allows the novice to learn the technique before adding in the additional complications of the bag and drones. It’s also much quieter than a full set of bagpipes, mercifully, because even the most hardcore fans of the instrument will agree that badly played pipes are an agony to listen to.
Inventor John Dingley, aka XenonJohn, decided to automate the playing of bagpipes by creating an actual robot piper named, amusingly, Ardu McDuino. The device, at this point, is basically a giant pair of 3D printed hands that play a practice chanter, and you can make one yourself thanks to Dingley’s Instructable, if you decide that an android wailing “Scotland the Brave” is exactly what has been missing in your life.
Ardu McDuino is powered by an Arduino Mega 2560, and if its hands look familiar, it’s because Dingley used e-NABLE’s well-known Raptor Reloaded prosthetic hand design. We’ve seen this design customized and printed to give a young boy the ability to play basketball, as well as to help hundreds of others in need, but I will confidently bet that this is the first time the Raptor Reloaded – or any of e-NABLE’s designs – has been used for a bagpipe-playing robot.
“The finger tips are lifted off the holes of a bagpipe chanter with 12V DC solenoids,” Dingley explains. “The solenoids are controlled by the Arduino board via opto-isolated MOSFETS which can be bought on low cost boards fully assembled in groups of four.”
Dingley wrote a code for the robot based on piping instructions from the Teach Yourself Bagpipes website. While he admits that it may be easier to turn the chanter on its side and arrange the solenoids so that they press directly onto the holes, moving fingers just look cooler, in his opinion – and he eventually wants to add arms and a head.
Dingley provides detailed instructions in 33 steps about how to 3D print and assemble the hands – which are actually just seven fingers and a thumb, custom fit to each hole on the chanter – and the electronic components. He also includes Arduino sketches he created to have the robot play “Amazing Grace” and “Highland Cathedral” (rather badly in the latter case, he admits).
Ardu McDuino is a work in progress; Dingley states that he intends to keep improving the control software with the goal of eventually creating beautiful music. It’s a pretty inexpensive project to tinker around with, and all STL files are included in the Instructable. Check out the talents of Dingley’s robot piper below:
Discuss in the Robot Bagpipes forum at 3DPB.com.
You May Also Like
A 2020 View of Metal Additive Manufacturing
Yes, the title is ironic. No view of the future is 20/20, especially ours, although John has been eyeing some 3D printed custom Titanium frames to help sharpen the outlook....
Formnext 2019: A lot of new players, but where is the business value?
As the end of the year approaches, the additive manufacturing industry gathers in Frankfurt for the biggest event of the year: Formnext. For a week in November, the entire world...
2019 Year in Review: Desktop 3D Printing
In 2019 desktop 3D printing continued its onward march towards greater adoption. And, by now, it doesn’t look all that different from the industrial space, in may ways. New Products...
SmarTech Analysis Launches New Data Product Addressing Parts Produced by Additive Manufacturing
Industry analyst firm SmarTech Analysis today announced a new data product geared towards addressing the critical metric of additively manufactured parts produced. The Additive Manufacturing Applications Market Analysis Report is a...
View our broad assortment of in house and third party products.