Swimming In A Bowl

Anyway, the next night we watched a thing about some pig man who is supposed to live in Vermont. People said it had claws and a pig nose but walked upright like a man. Now, I happen to know that sideshows used to shave bears and present them as pig men. So every piece of evidence they gave of this monster sounds to me like a bear with mange.

So now the running joke in our house is that everything is bears. Aliens? Bears. Loch Ness monster? Bear. Every cryptozoological mystery is just a very crafty bear.

I wanted the birds to look like they were actually in the space so first thing after doing the draft was to do a lighting study

after that I covered the walls in letters in lieu of a projector/vr headset bc i have neither of those :) Then i take a picture of the section of wall and superimpose the lineart over top of it so I can pencil in the lines

et voila

GIVE IT UP FOR BIRD NUMBUH 5, THE CANADIAN GOOSE, Branta canadensis!!!!

bird 5/14, Bluejay, Cyanocitta cristata

Working at Harvard in the late 1800’s and early 1900’s as a “Computer”, Annie Jump Cannon cataloged stars using their spectra from photographic plates, in an effort to understand the mysteries and peculiarities of stellar spectra.

This was hard, detailed, nuanced work. By 1889, three years into her work, she had classified over 1,000 stars. By 1913, she could classify 200 stars an hour. She could classify three stars a minute, just by sight. Using a magnifying glass, she could classify stars down to 9th magnitude, 16 times fainter than the human eye can see. And she did this all with exceptional accuracy.

Over the course of her career, she personally classified more than 350,000 stars, accounting for a mind-boggling 98% of all contemporary stellar spectra classifications, a feat that wouldn’t be bested until the 1990’s with automated digital sky surveys.

Cannon used these classifications to develop the Harvard spectral classification system (O–B–A–F–G–K–M), organizing stars by surface temperature and physical properties.

It is hard to overstate just how foundational her work was to modern astronomy and astrophysics. Her classifications have enabled more than a century of breakthroughs in stellar structure and evolution, including the understanding of how stars change over time and how temperature, luminosity, and composition are related. The system underpins the Hertzsprung–Russell (HR) diagram, one of the most important tools in astrophysics, and remains embedded in modern research, from stellar population studies to galaxy evolution.