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criticisms of the einstein field equation - Alpha Institute for Advanced ...

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2.5. TENSOR AND VECTOR LAWS OF CLASSICAL DYNAMICS . . .<br />

This result illustrates that <strong>the</strong> internal structure <strong>of</strong> <strong>the</strong> relation between <strong>field</strong> and<br />

potential is different <strong>for</strong> each law <strong>of</strong> electrodynamics in ECE <strong>the</strong>ory. There<strong>for</strong>e<br />

in a GCUFT such as ECE different types <strong>of</strong> <strong>field</strong> and potential exist <strong>for</strong> each<br />

law, and also different types <strong>of</strong> spin connection.<br />

For <strong>the</strong> orbital Gauss law <strong>of</strong> magnetism <strong>the</strong> internal structure <strong>of</strong> Eq. (2.136)<br />

is:<br />

A = A 01 i + A 02 j + A 03 k, (2.139)<br />

ω = −(ω 01 0i + ω 02 0j + ω 03 0k). (2.140)<br />

For <strong>the</strong> Ampère Maxwell law, a spin law, <strong>the</strong> internal structure <strong>of</strong> Eqs. (2.135)<br />

and (2.136) are again different, and are defined as follows. The structure <strong>of</strong> Eq.<br />

(2.135) is:<br />

φ = cA 00 = cA 01 = cA 02 = cA 03 ,<br />

AX = A 01 = A 11 = A 21 = A 31 ,<br />

AY = A 02 = A 12 = A 22 = A 32 ,<br />

AZ = A 03 = A 13 = A 23 = A 33 ,<br />

ωX = ω 11 0 = ω 11 1 = ω 11 2 = ω 11 3,<br />

ωY = ω 22 0 = ω 22 1 = ω 22 2 = ω 22 3,<br />

ωZ = ω 33 0 = ω 33 1 = ω 33 2 = ω 33 3,<br />

ω = cω 10 0 = cω 10 1 = cω 10 2 = cω 10 3<br />

= cω 20 0 = cω 20 1 = cω 20 2 = cω 20 3<br />

= cω 30 0 = cω 30 1 = cω 30 2 = cω 30 3<br />

and <strong>the</strong> structure <strong>of</strong> Eq. (2.136) is:<br />

BX = B 332 = ∂AZ<br />

∂Y<br />

BY = B 113 = ∂AX<br />

∂Z<br />

BZ = B 221 = ∂AY<br />

∂X<br />

− ∂AY<br />

∂Z + ωZAY − ωY AZ,<br />

− ∂AZ<br />

∂X + ωXAZ − ωZAX,<br />

− ∂AX<br />

∂Y + ωY AX − ωXAY .<br />

(2.141)<br />

(2.142)<br />

Finally <strong>the</strong> internal structures are again different <strong>for</strong> <strong>the</strong> Faraday law <strong>of</strong> induction.<br />

In arriving at <strong>the</strong>se conclusions <strong>the</strong> relation between <strong>field</strong> and potential in<br />

<strong>the</strong> base manifold is:<br />

F κµν = ∂ µ A κν − ∂ ν A κµ + (ω κµ<br />

λ Aλν − ω κν λA λµ ). (2.143)<br />

The Hodge dual <strong>of</strong> this <strong>equation</strong> is:<br />

F κµν = (∂ µ A κν − ∂ ν A κµ + (ω κµ<br />

λ Aλν − ω κν λA λµ ))HD<br />

36<br />

(2.144)

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