And here they are, all on same plot.

Top left is proportion between black hole mass, and the luminous stellar mass.

Superbly well.

And, consistent from what we expect from stellar evolution laws.

They all yield the same results.

Interestingly enough, that corresponds to the riot of omega matter to the omega of variance in unknown at large.

Again, circular velocity, and against the halo mass.

That gives you first approximation to the density distribution in space.

So we can see that they are directly proportional and the mass is that how proportional they are

Mass

zettawatts

das

cs

guilders

forints

litass

latss

Plugging these two numbers, into the equation above, gives us cluster masses of the order of ten 14 or ten 15 solar masses.

energy, in its mass temp What are you doing?

We could have let y is equal to force and m is equal to... or mass is equal to p.

An alloy always contains the same elements in the same mass ratio. Should two or more elements bind together then the mass ratio is constant.

It's important if you try to model this.

Ball mass

Maximum mass

Minimum mass

Equivalent Mass

Atomic mass

Measurement of an amount of matter.

Atomic Mass

Exact Mass

Fluorine

Particle mass

When we become aware of this, we can engage in that activity as the primary direction of human civilization.

So fitting dynamical models in detail to galaxies we can figure out exactly what their masses are, and you can plot masses to light ratio versus luminosity or reduced mass, and here they are.

Now, I'm going to start just giving you a definition of ratios, and this I got from Wikipedia.

It dictates most of the gravitational forces in our solar system.

It would take as many human bodies to make up the sun as there are atoms in each of us.

And we find out that for the luminous mass alone, mass to light ratio doesn't change through the function of mass.

This is very graphically shown by the Worldmapper website and project.

And what's plotted here, confusingly in the same diagram, is the mass to light ratios for the total mass that's sort of the tilted component and for the luminous mass alone, which is a kind of flat component.

That's that universal gravitational constant G times the mass of object one, times the mass of object two.

Mass Conversions

Atomic Mass u

Body mass

As long as it's some matter of any kind that exerts gravitational pull, it will contribute.