Radical Impressionist: A Mathematician Paints

  I spent some time recently creating this very small 4x5 booklet of some of my paintings with Vista Print. I wanted to illustrate how one might analyze paintings using grids just as historic artists might have used.   I made transparencies of various grids to be superimposed over the paintings with a ratio of 3:4 (9x12, 12z16 and 18x24). Here's an illustration from the book, but have a look at the transparencies in this post below. The transparencies are not permanently in place. This allows the viewer to mix and match transparencies.  One idea would be to see if any particular grid is more effective.  You might want to read the posts on applying the grids to other paintings; eg, my post on Design Armature Examples applied to the Santa Fe River Turbulence ). I go into detail about the different grids including the Andrew Loomis' Informal Subdivision. But I will make a few descriptive comments here also.  You may also search through this blog using the search bar above. Alterna

Introduction Dynamic Symmetry grids are available from the website, Canon of Design:  https://www.ipoxstudios.com/canon-of-design-essentials/ . I recently purchased an $11.99 package with literally hundreds of grids for PHI and many ROOT rectangles and popular camera or film sizes. Some of the grids have black lines as in these examples and some white lines. Our most popular painting canvases don't necessarily have grids that fit with the same proportion, but some are quite close.   Some examples (you may select any of these for download to your computer. These inserted images are smaller than the original but useful I think; they don't need much resolution).  Note that the package I downloaded also has some very useful camera-sized grids.  The website owner has many free posts on using these grids and has some free downloads also. eg: 6x8, 9x12, 12x16, 18x24 Golden Rectangle Golden Rectangle Close to 5x7 since 7/5 = 1.4 and Root 2 = 1.414.. eg: close to 11x14 since 14/11 = 1.2

It's time to resume working on an article I've promised myself for years. Perhaps it could become a book. I've been too busy painting though. But also, the one gallery representing me (Marigold Gallery on Canyon Road in Santa Fe) closed in January so I've been thinking about next steps.  But the main reason I am thinking about this now is that I see some excitement generated in the community to revisit the design techniques that I see as mathematical, involving dynamic symmetry concepts. I could even touch on the deeper mathematics behind the techniques in an appendix. This will fulfill my need to marry my two passions: painting and mathematics. In any case, two years ago I took a zoom workshop with Michele Byrne (now of Santa Fe) well-known artist specializing in using a palette knife, my favorite painting tool. An added benefit of the workshop was to see how she employs dynamic symmetry in her work: https://www.oilpaintersofamerica.com/2022/03/dynamic-symmetry-and-ho

(Originally published Jan, 2019)  Everyone refers to Betty Edwards' book,  Drawing on the Right side of the Brain .  And I have to admit that it was an important book for me when I began to draw and paint seriously, in fact, so much so that it contributed to my efforts NOT to use the left side of my brain. But I was a Mathematician first and throughout my painting career I kept being bombarded with left-side ideas or logic. I couldn't escape it even if I tried. But I kept pursuing my need Not to allow logic to affect my painting. Finally this year I came to grips with the fact that I am driven by logic; I am an analyst first. And in fact I realized that for me, it's important to accept the logical part in order to grow as a painter.  So I determined that I would not discourage any left-brain ideas popping up while I paint.  And I would marry both sides of my brain perhaps to establish my brand as a painter-mathematician (or mathematician-painter). We all know that mathemati

Image from the article on iso-perimetry given at the end*   Worth posting again.  In 2019, a mathematician, painter and long-time friend, Joel Spruck, from my Courant Institute days, proved a historic conjecture that is a generalization of the Dido's conjecture: find the shape enclosed by a given 'string' with the largest area. I just reread the article and wanted to highlight the last part on painting and doing math:  For Spruck, doing math is similar to painting—he experiences both as a form of meditation. Two of his own canvases adorn his office. "You get in a certain space," he says. "When you're really thinking about things, it's like being in a meditative state. Hours and hours go by and you don't even realize it. "You take a blank canvas, you have certain fundamental rules, but it's all open. And the other thing that's like with painting, or anything else, is to love the challenges. It's not whether you succeed in the momen