Artists

Chaim Goodman-Strauss

Outreach Mathematician

National Museum of Mathematics

New York, New York, USA

chaimgoodmanstrauss@gmail.com

https://chaimgoodmanstrauss.com

Statement

Play, drawing, toys and sculpture have always been core to my own mathematical understanding. I have been illustrating mathematics as long as I have been practicing mathematics, which is to say, as long as I can remember, trying to render the abstract tangible. Conversely, many of my research interests are anchored in concrete hands-on exploration. Sharing this perspective is central to my work as a teacher, artist, and mathematician, through fun hands-on classroom activities for kids, mathematical outreach, my academic research, group sculpture-builds, or my work at the National Museum of Mathematics.

Artworks

Image for entry '±[TxC_6]'

±[TxC_6]

18.0 x 18.0 x 18.0 cm

nylon tubing, 3D printed nylon

2022

Additional info

The tubing in this sculpture all lies along circles (or lines, circles of infinite radius). In fact, we can fill all of space continuously with each color of circle — these are each stereographic projections of a Hopf fibration, a division of the hypersphere into circles. The red, green, and blue fibrations are oppositely handed from the yellow one, and they all meet at right angles. In the hypersphere, these circles have symmetry denoted ±[TxC_6] in Conway's notation --- this sculpture is one of a series illustrating many of these symmetries. This is part of a larger project to illustrate many other symmetries of the hypersphere.
Image for entry 'A few subgroups of ±[OxO]'

A few subgroups of ±[OxO]

20.0 x 50.0 x 20.0 cm

nylon tubing, 3D printed nylon

2018-2025

Additional info

Using the principles outlined in the description of other submitted piece, these pieces show several other symmetries of the hypersphere, all subgroups of the symmetry of the compound of two dual 24-cells, in objects such as a compound of two compounds of three 16-cells; a compound of three hypercubes; or the double covers of Cayley graphs of the rotational symmetries of a tetrahedron.