superfantastic wrote:
During the World Cup this year I'd watch Argentina's matches, but when I got bored I'd start looking at the geometric shapes formed with the players as their vertices (are they called that?). They changed all the time; it was cool.
I can totally relate to that. When I'm bored I have always looked for geometric shapes in groups of objects, people, etc. I think that is at least one of the reasons I like big cities at night--all the lights in the buildings are arranged in huge geometric grids. Geometry is still an interesting subject for me.
superfantastic wrote:
I also tend to stare at things like wooden doors/concrete floors when I zone out, scanning the patterns with my eyes, but I don't really see them (well, I don't think about them or notice them consciously). It's just something my eyes do by themselves.
I do this quite a bit too, and I did it even more when I was younger. In my family's old house, where I lived when I was in elementary school, my bedroom ceiling was all wood and had a very pronounced grain in it. While laying in bed after waking up in the morning, I would try to mentally connect the knots in the wood with a network of lines having the minimum total length, or try to find several knots that were all on one straight line, etc.
In my high school, the doors into some of the English and history classrooms were wooden with panes of glass in them, and sandwiched between the two panes of glass in each door was a piece of wire mesh. This mesh had a hexagonal grid pattern, like chicken wire, and while some of the sides of the hexagons were a single piece of wire, others consisted of two pieces of wire twirled around each other, making them thicker. The hexagonal pattern and the fact that the thick and thin segments alternated along the grid reminded me of the bonding of carbon atoms in a sheet of graphite (I am a chemistry student, and was already into it at that time).
As of now I am interested in organic chemistry, which often comes down to recognizing particular patterns of atoms (called "functional groups") in a large molecule. My ability to mentally rotate complex objects also contributes to my understanding of this subject, as I can identify the patterns no matter how they are arranged in space. Also, one of the things I want to do in graduate school is work on how cells can be induced to form patterns through chemical communication between them. I am often at odds with professors since they tend to only use mathematical and computer models whereas I like to mentally see what's going on inside the cells.