energy proportions

Energy is the capacity of doing work . There are a lot of things in which energy relates its proportions .If a body has more mass then it will have more energy . It is also shown in Einstein's mass energy equivalence formula.

We know, E_T²=p²c²+m²c⁴ .

From this fromula we can see

E_T ∝ p , E_T∝ m and E_T∝ c

Also we know ,

Energy increases in the increase of velocity

KE=1/2mv²

From the formula

E_T ∝ v

Energy increases in the increment of a (due to g),vertical (s)

P.E=mgh

From the Formula

E_T∝ acceleration(due to g) and E_T∝ vertical(s)

We also know Energy increases in the strong Gravitational fields Hence ,

E∝F where Gravitational force

And last one about work done W_D

The Work done is Indirectly Proportional to Total Energy For Instance ,

If we do work such as pulling a heavy object then we will loose more energy compared to pulling light objects.

And hence

E_T∝1/Wd

We can conclude the results from the above proportions

E_T= E_KE+E_PE

Where E_T is Total Energy ,E_KE is Kinetic Energy and E_PE is Potential Energy

Therefore

E_T ∝ m.F.v.p.df.Fhs.ag/Wd

E_T=cm.F.v.p.df.Fhs.ag/Wd

Where c is the constant speed of light .

We can also write

P_T =P_m+P_w

Where P_T is Total momentum , P_m is Momentum in matter and is P_w Momentum in waves.

Similarly we can write

G_T = F+f

G_T is Total Force of Attraction in Field

Where F is the Force of Gravitation in Field and f is the force of gravity in field.

Also

H_s is the height distance

C is constant speed of Light 299792458 m/s

Then the equation will be,

E_T=CPt.Gt.hs/Wd where Total Energy of a body is ∝ Energy gain and 1/∝ to Energy Loss.