<p><BR/>Replying to:<BR/><DIV CLASS='Discussion_PostQuote'>But does anyone know what he is talking about? Nucleotides are organic molecules that are the structural units of RNA and DNA. I can't find any relevent reference to "tolman exercises" or a "tolman graph". <br />Posted by DrRocket</DIV><br /><br />Sorry for the delay and for the mis-statement. I meant to say nuclides. O. Manuel's chart of the Nuclides. It was a series of studies since 1971. He also shows 10^43 H+ ions leaving the sun per year, which happens to be a pretty substantial electric field, but he also uses mass fractionation and radioactive decay (woah) which reveals several nuclear reactions necessary to produce Pu244 which, along with the date coding of the solar system components, indicates that the solar system was formed from a supernova explosion. Each of these reactions include lots of energy released, as well as accumulation of H+ ions as they migrate to the surface.</p><p>This thought pattern about chemistry led me to a plethera of conclusions that nearly drove me insane, as Mr. Rocket would be happy to know.</p><p>Chemistry ignores everything inside the valence shell, even though the space between the electrons and the nucleus cause emission which is unique even for atoms of the same valance. I couldn't help but make the connection to the very large emission that you speak of in the observational study of the Universe.</p><p>The Hypothesis I'm developing will account for emission, and graph it as a function of enclosed mass and enclosed charge, as well as the time to get to the observer. Simply, the interaction between mass and charge density, on every scale. It's scary to think about, but maxwell's mathematics make it pretty simple if we can develop the equation using observational data on both the small and large extremes. That's where the tolman surface brightness test comes into play. Since distance was assumed in accepted cosmology, we have to retreat to direct observational data. From Z=1 to Z>7, the size of the galaxies get larger because there is less charge density (electromagnetic fields) holding them in place. This is simply as far as we can see, and we can utilize this data along with known data of atomic forces to help draw the constants in the equation.</p><p>Call me crazy if you want; it's been done plenty. I call it electromass and I'm open to any questions.</p><p>-Justin</p><p> </p> <div class="Discussion_UserSignature"> <p>-KickLaBuka</p> </div>