Charge and Force of Attraction
Posted: Tue Apr 24, 2012 6:47 pm
In conventional theory, the force of attraction between two charges is defined by:

Charge is defined in units of Coulombs, which in the Reciprocal System have units of "s" (1 ampere x 1 second = s/t x t = s). Omitting the fudge-factor constant, the equation is unitless, since the distance is also has units of space. They introduce "k" as a magic constant containing units to make the equation work.
In researching Basic Properties of Matter, Larson indicated that the cgs-based statCoulomb would probably be a better choice of units for measuring the electric charge, rather than the SI-based Coulomb. In conventional science, the two are considered to have the SAME units, with just a constant supplying the difference in magnitude:
1 C ↔ 2997924580 statC ≈ 3.00×109 statC (Wikipedia on StatCoulomb)
BUT, then it goes to define the units for a statCoulomb like this:
1 statC = 1 g1/2 cm3/2 s−1 = 1 erg1/2 cm1/2.
Rather bizarre combination, so let's break it down into natural units of space and time:
}^\frac{1}{2} s^\frac{3}{2} \frac{1}{t} = \frac{t^{1.5}}{s^{1.5}} \frac{s^{1.5}}{t} = t^\frac{1}{2} = \sqrt{t})
It has units of the square root of time--not even CLOSE to the Coulomb units of space! But, if you use statCoulombs in the equation for the force of attraction/repulsion between charges, it works:

When correcting the units for statCoulombs and using them as the magnitude of charge, the equation balances nicely with units of force. This would indicate that the Coulomb is a quantity of electrons, not the electric charge. Larson had come to a similar conclusion regarding electric charge q (versus Q), making one have units of space and the other units of energy (t/s) to resolve problems with the Farad. Appears he had the right idea, but just implemented in the wrong place.
Charge is defined in units of Coulombs, which in the Reciprocal System have units of "s" (1 ampere x 1 second = s/t x t = s). Omitting the fudge-factor constant, the equation is unitless, since the distance is also has units of space. They introduce "k" as a magic constant containing units to make the equation work.
In researching Basic Properties of Matter, Larson indicated that the cgs-based statCoulomb would probably be a better choice of units for measuring the electric charge, rather than the SI-based Coulomb. In conventional science, the two are considered to have the SAME units, with just a constant supplying the difference in magnitude:
1 C ↔ 2997924580 statC ≈ 3.00×109 statC (Wikipedia on StatCoulomb)
BUT, then it goes to define the units for a statCoulomb like this:
1 statC = 1 g1/2 cm3/2 s−1 = 1 erg1/2 cm1/2.
Rather bizarre combination, so let's break it down into natural units of space and time:
It has units of the square root of time--not even CLOSE to the Coulomb units of space! But, if you use statCoulombs in the equation for the force of attraction/repulsion between charges, it works:
When correcting the units for statCoulombs and using them as the magnitude of charge, the equation balances nicely with units of force. This would indicate that the Coulomb is a quantity of electrons, not the electric charge. Larson had come to a similar conclusion regarding electric charge q (versus Q), making one have units of space and the other units of energy (t/s) to resolve problems with the Farad. Appears he had the right idea, but just implemented in the wrong place.