3D Printing the Trefoil Knot and its Pages
At the University of Georgia I spent three semesters exploring 3D printing techniques in topology under Dr. David Gay in the Mathematics Department, in particular, visualizing complex shapes and knots using a MakerBot Replicator 2.
My project involved programming, generating, and manipulating variations of the open-book decomposition of the complement of the trefoil knot in Mathematica to create a “3D printed puzzle” made of multiple pieces that hold together via small magnets.
During the summer of 2014, I was asked to guest post on Dr. Laura Taalman’s 3D printing blog MakerHome. She printed one object every day for a year, including my trefoil knot. I wrote a two-part piece for her website which described in detail the mathematical theory governing my research, the visualization techniques used, and models I had printed thus far. You can read the introduction here, part I here, and part II here.
I was then invited to repost this piece on Wolfram Community. At the end of 2014, the project spread around the internet and was written about by 3DPrint.com amongst other mathematics blogs, such as this Sketches of Topology post titled “Mathematics with 3D Printing.” Most recently, 3DPrint.com wrote a second piece about the completed project.
I also took pictures of some of the configurations of the puzzle which can be seen below.
You can download my models from my Thingiverse profile to 3D print for yourself.
- Undergraduate Thesis
- My Thingiverse Profile
- Introductory Code on Github
- UGA CURO 2015 Symposium Presentation
- UGA CURO 2014 Symposium Presentation
- MakerHome Introduction, Part I, Part II
- 3DPrint.com Article I, Article II
- Wolfram Community Announcement
- Sketches of Topology Post