Einstein Equation Tank Tops

illustration of the Einstein Equation

Illustratrion of Einstein's Equation of Cosmology with a apple

Formula of General Relativity

Illustration of the E=MC2

The Standard Model Equation, finally with gravity added!

E = mc2

The best description of the force of gravity, made by Albert Einstein using 4 dimensional space time to describe the movement of objects.

The best description of the force of gravity, made by Albert Einstein using 4 dimensional space time to describe the movement of objects.

Thanks to Albert Einstein, we now have an idea about the Universe that we live in. E equals mc squared, mass–energy equivalence is the principle that anything having mass has an equivalent amount of energy and vice versa.

E = mc2 , mass–energy equivalence , Albert Einstein's formula

Formula of General Relativity

Energy is equal mile coffee square

The Einstein Field Equations are a useful set of differential equations that describe the behavior of a scalar field in a vacuum. They have been used extensively in the fundamental physics of special relativity, quantum mechanics, and in relativity and cosmology.

The Einstein Field Equations are a useful set of differential equations that describe the behavior of a scalar field in a vacuum. They have been used extensively in the fundamental physics of special relativity, quantum mechanics, and in relativity and cosmology.

The Einstein Field Equations are a useful set of differential equations that describe the behavior of a scalar field in a vacuum. They have been used extensively in the fundamental physics of special relativity, quantum mechanics, and in relativity and cosmology.

The Einstein Field Equations are a useful set of differential equations that describe the behavior of a scalar field in a vacuum. They have been used extensively in the fundamental physics of special relativity, quantum mechanics, and in relativity and cosmology.

Energy is equal to my coffee. Power-up drink

The best description of the force of gravity, made by Albert Einstein using 4 dimensional space time to describe the movement of objects, is in the form of an action integral thanks to the work of the infamous David Hilbert.

The best description of the force of gravity, made by Albert Einstein using 4 dimensional space time to describe the movement of objects, is in the form of an action integral thanks to the work of the infamous David Hilbert.

The General Theory of Relativity is a mathematical equation that describes the way gravity affects light, time and space. The theory was formulated by Albert Einstein in 1915 but remained speculative until it was experimentally verified in 1919.

The Dirac equation is a relativistic wave equation that describes the propagation of a charged particle in a field. It is named after the English physicist Paul Adrien Maurice Dirac.

The Dirac equation is a relativistic wave equation that describes the propagation of a charged particle in a field. It is named after the English physicist Paul Adrien Maurice Dirac.

E = mc²

The Einstein Field Equations are a useful set of differential equations that describe the behavior of a scalar field in a vacuum. They have been used extensively in the fundamental physics of special relativity, quantum mechanics, and in relativity and cosmology.

The Einstein Field Equations are a useful set of differential equations that describe the behavior of a scalar field in a vacuum. They have been used extensively in the fundamental physics of special relativity, quantum mechanics, and in relativity and cosmology.

The big picture of the famous equation E=mc².

The big picture of the famous equation E=mc².

The big picture of the famous Schrödinger equation, the Dirac equation, which describes particles in the relativistic quantum world.

This is the perfect formula if you ask me! Who doesn't love milk and cookies (and more cookies!)

The General Theory of Relativity is a mathematical equation that describes the way gravity affects light, time and space. The theory was formulated by Albert Einstein in 1915 but remained speculative until it was experimentally verified in 1919.

Lorentz transformation, one of the interesting factors that open doors to the understanding of light and special relativity, and then many fields of physics.

Digital artwork of an atom with Einstein's famous equation.

Illustrated Energy Mass Equivalence.

Lorentz transformation, one of the interesting factors that open doors to the understanding of light and special relativity, and then many fields of physics.

The formula giving the speed of light in a vacuum, this formula is deduced using the d'Alembert wave equation, and it proves the wave nature of light.