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This ain't no theory development but scientific facts[/color]
In "Special theory of relativity" by dr. V.Z. Belgrade 1997 it's writen:
c=\frac{1}{\sqrt{e_0m_0}}=3E8\frac{m}{s} for the speed of the light;
In "Electro-magnetics 1" by dr. Lj.J. Skopje 1994 it's writen:
e_0=\frac{1E-9}{36 \pi} \frac{F}{m} for dielectric const of vacuum;
m_0=4 \pi 1E-7 \frac{F}{m} for magnetic permeability in vacuum;
=> c=3E8 \frac{m}{F} and 1F=1s;
F_C=\frac{-kQ_1Q_2}{R^2} - The Coulomb's law;
k=9E9\frac{Nm^2}{C^2}=\frac{1}{4\pi e_0} for Coulomb's proportionale;
=> e_0=\frac{1E-9}{36 \pi} \frac{C^2}{Nm^2};
=> \frac{C^2}{Nm^2}=\frac{F}{m};
=> \frac{C^2}{Nm}=F;
=> Nms=C^2=\frac{kgm^2}{s};
=> kgm^2=C^2s;
My question is where is the sense in that?[/color]
In "Special theory of relativity" by dr. V.Z. Belgrade 1997 it's writen:
c=\frac{1}{\sqrt{e_0m_0}}=3E8\frac{m}{s} for the speed of the light;
In "Electro-magnetics 1" by dr. Lj.J. Skopje 1994 it's writen:
e_0=\frac{1E-9}{36 \pi} \frac{F}{m} for dielectric const of vacuum;
m_0=4 \pi 1E-7 \frac{F}{m} for magnetic permeability in vacuum;
=> c=3E8 \frac{m}{F} and 1F=1s;
F_C=\frac{-kQ_1Q_2}{R^2} - The Coulomb's law;
k=9E9\frac{Nm^2}{C^2}=\frac{1}{4\pi e_0} for Coulomb's proportionale;
=> e_0=\frac{1E-9}{36 \pi} \frac{C^2}{Nm^2};
=> \frac{C^2}{Nm^2}=\frac{F}{m};
=> \frac{C^2}{Nm}=F;
=> Nms=C^2=\frac{kgm^2}{s};
=> kgm^2=C^2s;
My question is where is the sense in that?[/color]