Uncertainty Principle Tank Tops
Description: Subject to Uncertainty is a dry physics humor design inspired by Werner Heisenberg and the Heisenberg uncertainty principle, featuring bold distressed typography with a minimalist film-credit aesthetic. Made for physicists, quantum mechanics students, scientists, science teachers, researchers, and anyone who enjoys smart quantum physics jokes.
Description: A black background with red text and blue mathematical symbols. The top text reads "I can explain it to you". In the center, a blue inequality "ΔxΔp ≥ h/4π" is displayed. The bottom text reads "but I can't understand it for you". This references the Heisenberg Uncertainty Principle.
Description: A black background displays a physics equation in bright blue: \"Δx Δp ≥ h/4π\". Curved red text above reads \"I can explain it to you\". Curved red text below reads \"but I can't understand it for you\". The overall composition resembles a curved quote with a central formula.
Description: A black background features white text. The top line reads "YOU CANT 100% CONVINCE ME". The middle section displays a scientific formula: sigma x sigma p is greater than or equal to h divided by 4 pi. The bottom line states "I'M A PHYSICIST" in a distressed font.
YOU CANT 100% CONVINCE ME I'M A PHYSICIST Heisenberg Uncertainty Principle Tank Top
by Spectrum StudioArt
$21
Description: Formulated by Werner Heisenberg in 1927, his uncertainty principle is one of the cornerstones of quantum mechanics. In its most familiar form, it says that the more precise the measurement of position, the more imprecise the measurement of momentum, and vice-versa. Thus, one can never know with perfect accuracy both of those two important factors which determine the movement of one of the smallest particles, its position and its velocity, at the same instant.
Description: Formulated by Werner Heisenberg in 1927, his uncertainty principle is one of the cornerstones of quantum mechanics. In its most familiar form, it says that the more precise the measurement of position, the more imprecise the measurement of momentum, and vice-versa. Thus, one can never know with perfect accuracy both of those two important factors which determine the movement of one of the smallest particles, its position and its velocity, at the same instant.
