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![]() Newsgroups: sci.physics, sci.math From: Archimedes Plutonium Date: Sun, 5 May 2013 21:55:28 -0700 (PDT) Local: Sun, May 5 2013 11:55Â*pm Subject: Chapt15.61 All of mathematics derived from the 4 Maxwell Equations; Universal Geometry #1348 New Physics #1551 ATOM TOTALITY 5th ed Reply | Reply to author | Forward | Print | Individual message | Show original | Remove | Report this message | Find messages by this author Let me spend some time on this idea that mathematics is derived from one set of axioms that covers both numbers and geometry, that we should not have a situation wherein we have numbers from Peano axioms and then Euclidean geometry from Hilbert axioms and then Elliptic and Hyperbolic geometry modifications of some Euclidean axioms. Since all of physics is derived from the 4 Maxwell Equations upon the facts and data of chemistry, and since math is a subset of physics, then all of mathematics should be contained within those 4 Maxwell Equations. Now it is easily seen that the 4 Maxwell Equations are equations of geometry for you have a bar magnet moving iron filings on a sheet of paper with the visuals of lines of force and then you have the bar magnet thrust through a closed loop wire to make a electric current flow and then you have a current in a closed loop wire creating a magnetic field around the wire. So it is easy to see that the 4 Maxwell Equations are involved with geometry. But what maybe not so apparent is that those 4 Maxwell Equations have all 3 geometries involved simultaneously. And the Maxwell Equations produce the famous relationship of this: Euclidean geometry = Elliptic geometry unioned with Hyperbolic geometry Now that is one feature that geometry never established before. In Old 
Math, what was done is that the Hilbert axioms were devised and then 
to get to Elliptic geometry, we alter the parallel postulate for a 
revised postulate that no lines are parallel, and Hyperbolic we alter 
that axiom to be that 2 or more lines are parallel. So in Old Math, 
they had 3 sets of independent axioms to cover geometry. But it ends 
not with the parallel postulate being altered. There is a huge problem 
in the fact that Elliptic geometry has only positive numbers since the 
curvature is always positive and in Hyperbolic geometry all the 
numbers are negative numbers, even when you multiply two negatives the 
outcome is negative. So other axioms of Hilbert have to be altered or 
new ones entered to take care of the curvature number representation. But then when you throw out all the axioms of geometry, such as the Hilbert set and just introduce the 4 Maxwell Equations, they possess all three geometries within those 4 equations. And they allow the numbers of Elliptic to always end up being positive and all the numbers of Hyperbolic ending up as negative. But now, do the Maxwell Equations derive the Peano axiom structure? This maybe a little more difficult than deriving Hilbert's geometry axioms. In the case of the Natural Numbers what is the essential axiom? Well it is two axioms. One axiom that gives a gauge marker, the 
numbers 0 and 1 or the numbers 1 and 2. Something that gives a distance and then the axiom that gives the successor. So that if we had 1 and 2 it gives a distance apart between 1 and 2 as 1 unit distance and we take that unit distance to mark off a new third number 
1, 2 and then 3. And we mark off more and more successor numbers. So 
that is the basic essence of the Peano axioms. So can the 4 Maxwell Equations give us a gauge marker and then give us 
a successor? Well if we look at the Coulomb law, we have charge #1 and 
then charge #2. So the Coulomb law gives us basically the marker gauge. But now we need a Maxwell Equation that gives us a successor from charge 1 and charge 2 to charge 3 and on and on. Well, maybe I should backtrack and use magnetism rather than electric charge. A dipole magnet as used in the Faraday law is a magnet with pole 1 and pole 2 and sets a gauge marker. Now does it produce a new 3rd pole? Well, the trouble I am in is that I need to be able to convert magnetism into electric field. So instead of the bar magnet with magnetic poles, let us make the magnet from a electric current flow, as in most electric motors. So we have electric charge of 1 and of 2 in the magnet and in Faraday's law of induction in the closed loop coil, the magnet creates an electric current flow of charges 3 and 4 and 5 etc. So basically I have the Peano Axioms nested inside of the 4 Maxwell Equations. But now in Old Math they had a immense problem of never defining a borderline of finite with infinity. And I wrote the textbook Correcting Math wherein I discovered that root-pi 10^603 is that borderline between finite and infinity. What I am wondering is whether 
the 4 Maxwell Equations has a particular interest in this number root- 
pi 10^603? It is a number where pi has its first three zero digits in 
a row and evenly divisible by 2*3*4*5. Now is that number of grave importance to the 4 Maxwell Equations? Interesting question and a new one for me to ponder. -- Approximately 90 percent of AP's posts are missing in the Google newsgroups author search starting May 2012. They call it indexing; I call it censor discrimination. Whatever the case, what is needed now is for science newsgroups like sci.physics, sci.chem, sci.bio, sci.geo.geology, sci.med, sci.paleontology, sci.astro, sci.physics.electromag to
be hosted by a University the same as what Drexel
University hosts sci.math as the Math Forum. Science needs to be in education
not in the hands of corporations chasing after the next dollar bill.
Besides, Drexel's Math Forum can demand no fake names, and only 5 posts per day, of all posters which reduces or eliminates most spam and hate-spew, search-engine-bombing, and front- page-hogging. Drexel has
done a excellent, simple and fair author- archiving of AP sci.math posts since May 2012
as seen
he http://mathforum.org/kb/profile.jspa?userID=499986 Archimedes Plutonium http://www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies |
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