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The Evans Equations of Unified Field Theory - Alpha Institute for ...

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Einstein showed that four dimensions are necessary and sufficient to<br />

describe gravitation. <strong>Evans</strong> will show that those same four dimensions are all<br />

that are necessary to describe electromagnetism and particles in unified field<br />

theory.<br />

Einstein proposed R = -kT where k = 8πG/c 2 . R is the curvature <strong>of</strong><br />

spacetime – gravitation. R is mathematics and kT is physics. This is the basic<br />

postulate <strong>of</strong> general relativity. This is the starting point <strong>Evans</strong> uses to derive<br />

general relativity and quantum mechanics from a common origin.<br />

R = -kT says that the compression <strong>of</strong> spacetime (curvature) increases with<br />

mass (the energy density). We will go into it in more detail as we go along.<br />

Chapter 6 will introduce the <strong>Evans</strong> equations starting with R = -kT.<br />

In Figure 2-2 there are three volumes depicted, a, b, and c. We have<br />

suppressed two dimensions – removed them or lumped them into one <strong>of</strong> the<br />

others. While we have not drawn to scale, we can assume that each <strong>of</strong> the three<br />

volumes is the same as viewed by an observer within the frame. If we were to<br />

take c and move it to where a is, it would appear to be smaller as viewed from<br />

our distant, “at infinity,” reference frame.<br />

In Figure 2-2, the regions are compressed in all four dimensions.<br />

From within the spacetime, the observer sees no difference in his<br />

dimensions or measurements. This is the same in special relativity <strong>for</strong> the<br />

accelerated observer – he sees his body and the objects accelerated with him as<br />

staying exactly as they always have. His spacetime is compressed or contracted<br />

but so are all his measuring rods and instruments.<br />

When we say spacetime compresses we mean that both space and time<br />

compress. <strong>The</strong> math equations involve <strong>for</strong>mal definitions <strong>of</strong> curvature. We can<br />

describe this mechanically as compression, contraction, shrinking, or being<br />

scrunched. <strong>The</strong>re is no difference. Near a large mass, time runs slower than at<br />

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