I do not know if any author of fiction or nonfiction ever did what I am doing for the memory of future editions. Where I use the last chapter as a memory aid when I pick up this book to rewrite in a future edition.
And I have often written that the longer one spends in science, that science has a nasty habit of falsifying your earlier work. I think it was Frege or Russell or someone spent years on writing a book when it was obsolete just before the publishing date from some new results.
Anyway, the history of science shows us that even some of the most "indubitable knowledge" some of the most closely held beliefs turn out to be falsified by future science discoveries. There was a time when it was believed that Newton's physics would be everlasting, just as absolute space and absolute time.
When I wrote the AP-adics book, I was attacking two math ideas. One was a better formulation of P-adics from Hensel's p- adics and so I came up with the AP-adics. But a second attack was to further the idea that Geometry was this:
Euclidean Geometry = Elliptic unioned to Hyperbolic Geometries
Written in short: Eucl = Elliptic + Hyperbolic
And where I use the three and only three number-systems as native to one of those geometries such as this:
Doubly Infinites = +AP-adics unioned -AP-adics
But with this book of Correcting Math, I have run into a serious problem. In the AP-adics book, those numbers are defined as having a infinite-component and in Doubly Infinites there is no finite-component.
In this book, I define Finite as 10^500 or less (inverse included). And I throw out as meaningless the infinity or infinite-numbers.
So this book of Correcting Math ruins my previous book of AP-adics.
But I can salvage the AP-adics book.
I simply retitle it as Eucl Geom. = Ellipt unioned Hyperbolic. So I switch the emphasis to the geometry aspect of that previous book.
Then I go ahead and define all the integers to 10^500 as the AP-adics
I define the Hyperbolic geometry numbers as the negative integers to (-)10^500
For the numbers native to Euclidean Geometry I define them as the Doubly Finites rather than the Doubly Infinites which has numbers such as this:
333..33d999..99 where the symbol .. signifies the upper bound of 10^500 (and inverse).
Simply put, I erase all infinite numbers and provide only finite numbers defined as 10^500 upper bound.
The beauty of all numbers as finite, is a relief to Calculus, which works as old Calculus but there is never any problems of discontinuities, since there never was any continuity to begin with. All of geometry is discontinuous with holes in between all numbers.
So math becomes what Feynman became used to in his old age with Quantum Electrodynamics of getting rid of the infinites with renormalization procedures.
So in effect, I, Archimedes Plutonium, is not improving Quantum Electrodynamics by renormalizing, but rather, I am improving all of mathematics by renormalizing all of mathematics and throwing out infinities.
So by defining Finite in mathematics as 10^500 or below, what I have thus done is similar to what Feynman did for Quantum Electrodynamics-- renormalized.
But, also, now, I have to correct my previous book of its Geometry with the concept of finite.
Since there are no infinities in mathematics because there are none in physics, then we cannot have an infinite line, afterall. That means all lines in Geometry are finite and can go to the extreme of (-)10^500 endpoint to 10^500 endpoint. I spoke of a Euclidean Geometry as an all finite geometry already and see no problems in replacing out the old with the new.
But I do see some problems in defining a finite line in Elliptic and Hyperbolic geometry. So it may be years before I get back to that new edition and in the meantime can anticipate those changes.
Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies
> When I wrote the AP-adics book, I was attacking two > math ideas. One was a better formulation of P-adics from Hensel's p- > adics and so I came up with the AP-adics. But a second attack was to > further the idea that > Geometry was this:
> Euclidean Geometry = Elliptic unioned to Hyperbolic Geometries
> Written in short: Eucl = Elliptic + Hyperbolic
Having all the numbers finite is neat because I can rewrite that equation in symbol form as this:
| = ) + (
The idea is that the Elliptic geometry is the inverse of Hyperbolic geometry and where the application of a curve ) on another curve ( ends up with a straight line segment.
Now to translate that into number algebra we simply go to inverses where +2 is the inverse of -2. So if we have a curve ) that is all positive finite numbers applied to a curve ( of all negative finite numbers, they cancel leaving behind a straight line segment.
Or, we can do the transform via multiplication inverse where curve ) is positive integers and curve ( is multiplicative inverses cancelling to form a straight line segment.
> And where I use the three and only three number-systems as native to > one of those geometries such as this:
> Doubly Infinites = +AP-adics unioned -AP-adics
> But with this book of Correcting Math, I have run into > a serious problem. In the AP-adics book, those numbers are defined as > having a infinite-component > and in Doubly Infinites there is no finite-component.
> In this book, I define Finite as 10^500 or less (inverse > included). And I throw out as meaningless the infinity > or infinite-numbers.
> So this book of Correcting Math ruins my previous book of AP-adics.
> But I can salvage the AP-adics book.
> I simply retitle it as Eucl Geom. = Ellipt unioned Hyperbolic. So I > switch the emphasis to the geometry > aspect of that previous book.
Actually it appears that all finite numbers makes my other book easier. I now can see that the finite numbers from 0 to 10^500 cover a hemisphere and where the South Pole becomes the number 10^500 and then returning to the North Pole of 0, we have negative numbers in the return and where we consider the point one unit shy of the North Pole as (-)999..99 where that is one less than (-)10^500
And I set up Euclidean geometry as a finite geometry going from one extreme end of (-)10^500 to the other extreme end of 10^500
Both the Elliptic and Hyperbolic geometry can be represented by a sphere and where one is concave outwards, the other is concave inwards and putting the two together they cancel one another yielding a Euclidean straight line segment.
> Then I go ahead and define all the integers to 10^500 > as the AP-adics
> I define the Hyperbolic geometry numbers as the negative integers to > (-)10^500
> For the numbers native to Euclidean Geometry I define > them as the Doubly Finites rather than the Doubly Infinites which has > numbers such as this:
> 333..33d999..99 where the symbol .. signifies the > upper bound of 10^500 (and inverse).
> Simply put, I erase all infinite numbers and provide > only finite numbers defined as 10^500 upper bound.
> The beauty of all numbers as finite, is a relief to Calculus, which > works as old Calculus but there is > never any problems of discontinuities, since there > never was any continuity to begin with. All of geometry > is discontinuous with holes in between all numbers.
> So math becomes what Feynman became used to > in his old age with Quantum Electrodynamics of getting > rid of the infinites with renormalization procedures.
> So in effect, I, Archimedes Plutonium, is not improving > Quantum Electrodynamics by renormalizing, but rather, > I am improving all of mathematics by renormalizing all of mathematics > and throwing out infinities.
> So by defining Finite in mathematics as 10^500 or below, what I have > thus done is similar to what Feynman did for Quantum Electrodynamics-- > renormalized.
> But, also, now, I have to correct my previous book of its Geometry > with the concept of finite.
> Since there are no infinities in mathematics because there are none in > physics, then we cannot have an > infinite line, afterall. That means all lines in Geometry > are finite and can go to the extreme of (-)10^500 > endpoint to 10^500 endpoint. I spoke of a Euclidean > Geometry as an all finite geometry already and see no > problems in replacing out the old with the new.
> But I do see some problems in defining a finite line in > Elliptic and Hyperbolic geometry. So it may be years > before I get back to that new edition and in the meantime can > anticipate those changes.
So rather than harming my previous work of Eucl = Ellipt + Hyperb, it appears that as I make all the numbers Finite, that it helps the program and it gives more clarity.
Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies
> > When I wrote the AP-adics book, I was attacking two > > math ideas. One was a better formulation of P-adics from Hensel's p- > > adics and so I came up with the AP-adics. But a second attack was to > > further the idea that > > Geometry was this:
> > Euclidean Geometry = Elliptic unioned to Hyperbolic Geometries
> > Written in short: Eucl = Elliptic + Hyperbolic
> Having all the numbers finite is neat because I can rewrite that > equation in > symbol form as this:
> | = ) + (
That should be a powerful symbol, or rather two powerful symbols:
(1) Euclidean geometry is the Elliptic geometry unioned with Hyperbolic geometry (2) | = )(
In (2) we see how the union occurs in that we simply reverse a triangle's sides of concavity into a reverse concavity yielding a straight line.
And I should mention a third equation in this process of connecting geometry to algebra:
(3) Given a Doubly Finite Number which is native to Euclidean Geometry such as 1000..00d3333..33 where the symbol ".." indicates these are restricted by a boundary of finite as 10^500 decimal place value. We have: 1000..00d333..33 = 1000..00r + r333..333 So we have numbers in Elliptic geometry that are the integers and numbers in Hyperbolic geometry which we considered to be the decimal fractions.
> The idea is that the Elliptic geometry is the inverse of Hyperbolic > geometry > and where the application of a curve ) on another curve ( ends up with > a > straight line segment.
> Now to translate that into number algebra we simply go to inverses > where +2 is the inverse of -2. So if we have a curve ) that is all > positive > finite numbers applied to a curve ( of all negative finite numbers, > they > cancel leaving behind a straight line segment.
> Or, we can do the transform via multiplication inverse where curve ) > is positive integers and curve ( is multiplicative inverses cancelling > to form a straight line segment.
> > And where I use the three and only three number-systems as native to > > one of those geometries such as this:
> > But with this book of Correcting Math, I have run into > > a serious problem. In the AP-adics book, those numbers are defined as > > having a infinite-component > > and in Doubly Infinites there is no finite-component.
> > In this book, I define Finite as 10^500 or less (inverse > > included). And I throw out as meaningless the infinity > > or infinite-numbers.
> > So this book of Correcting Math ruins my previous book of AP-adics.
> > But I can salvage the AP-adics book.
> > I simply retitle it as Eucl Geom. = Ellipt unioned Hyperbolic. So I > > switch the emphasis to the geometry > > aspect of that previous book.
> Actually it appears that all finite numbers makes my other book > easier. I now > can see that the finite numbers from 0 to 10^500 cover a hemisphere > and where > the South Pole becomes the number 10^500 and then returning to the > North Pole > of 0, we have negative numbers in the return and where we consider the > point one > unit shy of the North Pole as (-)999..99 where that is one less than > (-)10^500
> And I set up Euclidean geometry as a finite geometry going from one > extreme end of > (-)10^500 to the other extreme end of 10^500
> Both the Elliptic and Hyperbolic geometry can be represented by a > sphere and where > one is concave outwards, the other is concave inwards and putting the > two together > they cancel one another yielding a Euclidean straight line segment.
(snipped)
> So rather than harming my previous work of Eucl = Ellipt + Hyperb, > it appears that as I make all the numbers Finite, that it helps the > program and it gives more clarity.
It maybe years before I pick up this book and write the 3rd edition thereof, is I want to jog my memory by reading the last pages of this book to recollect where I departed.
In the 3rd edition I should detail how the Calculus is rendered more clear and easier with the definition of Finite as the boundary at 10^500 (with its inverse).
Now there is one last item I want to convey before leaving. It is an item I brought up in the AP-adics book of considering these three different Infinite-Integers. (a) 1000....0000 = South Pole and 100% of the distance from North Pole to South Pole in Elliptic geometry. (b) 1000....0000 = 10% of the distance from North Pole to South Pole and is one decimal place missing of (a) since it is 10% (c) 0000....00100...0000 that number which is peculiar or strange. It definitely exists if you demand that Infinite Numbers exist. (Although I no longer demand any infinity concept and that Physics is all finitary.)
I bring this topic up, here at the end, because I suspect this peculiar number offers a proof that the definition of Finite versus Infinite requires one to pick out a "known finite number" such as 10^500 and declare all other numbers beyond as the realms of incognitum or infinite.
I believe this strange number 0000....00100....00000 is what Old Math believed as Finite in the best definition of Old Math had for "finite." If the reader recalls, the best that the Old Math ever did for finite definition was to say that a number is finite if its string of digits leftward ends in zeroes. For example: 747 was finite in Old Math because it was 0000....0000747. Noone ever bothered the old-timers of math because the discover that a number has a FrontView with BackView blinded them of ever asking whether 07777.....77777 would be a finite-number according to the best definition of finite by the old math and its old timers.
So a number like 0000....00100....00000 seemed to fit the bill for the Old Math, old timers definition of finite as ending in zeroes leftwards. And noone can say exactly where that "1" digit was. It was far smaller than 10% of the distance to the South Pole from North Pole. In fact, one could say that the distance was an infinitesimal distance from the North Pole in the direction heading for the South Pole.
So I leave this book with this strange number, and I suspect this number can prove that the only way of defining Finite versus Infinite is to actually pick out a large finite number such as any of the Planck Units in physics and to say-- that is the end of Finite and that all numbers beyond are either meaningless since there is no more physics going on, or that all numbers beyond are in the realms of incognitum to infinite.
So this special number is a tool to use in a proof that to define Finite in mathematics requires one to select a large finite number and call it the boundary between finite and infinite, or finite and meaningless. And since Physics has no infinities, well, it means that infinity is meaningless.
Bon voyage.
I need to wrap my head around Plutonium day which is rapidly coming up-- Nov 7, auf wedersehn
Archimedes Plutonium www.iw.net/~a_plutonium whole entire Universe is just one big atom where dots of the electron-dot-cloud are galaxies
wait; how do you *know*, you were concieved on Nov.7, 2012?
thus: what the Hey?... EEE's result is just the old "trivial" one, a triple of (1,0,1), a degenerate pythagorean trigon (if using "two" for the exponent, n).
he used to couch it in the "nonequality of 1.0000... and 0.9999...," which notion he seems to have dropped.
thus: well, that was a _Peter_ Michelson. He and Smolin are some kind of freaked, that they'd worry about the idea of the index of refraction, varying for different kinds of Newtonian "photons;" but, how can a zero-mass point-particle have a frequency, or a wavelength?
alas, another Book on p-adics bights the necklace.
thus: I am lying about numbertheory, and the number, 1.0000...; who gives a floating fart?
thus: original sources (and "sourcebooks") are really good, such as the below-linked Ouvre de Fermat for number- theory, and Bernoulli/L'Hopital's calculus textbook. (Euclid, not so much, as an encyclopedia, although he did supply new stuff, they say -- and Langlands says that Book 7 needs a lot of work; I do have a nice latter-day textbook on synthetic trigon geometry, but it's in French, so it's hard work.)
thus: of course, and the electrons can't go faster than light *even if* they might already be orbitting the nucleus at such a velocity.
thus: I could see that he got rid of the gamma function, but it'll be a while before that is clear to me; so, I asked about a problem he wrote about, before.