by solzhenitsyn08 » 26 Sep 2009, 17:07
A-4/a: THE REMINDER
JANT EQUILIBRIUM POSTULATE
First of all, let’s remember that initial chapter from the very beginning of this study:
Imagine the forward section in continuous line and the backward part of the main wheel of a bicycle-like machine marked by intervals show weight carrying strings to be made tense for the purpose. The full circle, up—way on the first page of figures, throws a clear light on the postulate. The string-shaped porters are not tense presently and the ship motionless.
On the near brink of the wheel f the derrick booms of the foremast jant porter strings out at an angle of forty—five degrees, slack against the stable position. In the rear the dark outline of the port brink and its components are sharply defined against a distant strip of coral equilibrium, unstressed in the beginning, fringed with screws whose tops rise not clear of the horizon. On the foremost is the continuous line with an open doorway in the center leading to the stretching and loosening unit's compartments. On either side of the disc are two open radial doors opening on the semi-semi quarters of the radius bunch, the wheel's regulators, and the mess room arrangers. Near each brink there is also a short stairway, like a section of tense escape, leading up to the tensed brinks center (the top of the disc)—the edge of which can be seen on the right and left.
In the center of the disc, and occupying most of the space, is the large, raised circle of the number one hatch, covered with radial lines, battened down for the function.
a-the remote brink of the jant
b-the near brink of the it
ps and ks: the power to make the strings tense
Seeming of the jant brinks (a and b) from approximately the same distance to them
A-4/b: COUNTABLE INFINITY: EQUILIBRIUM
The Variations on equilibrium of mutual strings located at the twin brinks of a jant:
ATTENTION (s.v.p): To understand the theme of this CHAPTER you must see THE FLAW upon which a special “undermining” was made!
Since every interrelation amongst the mathematical bodies must have had a Source from which it sprung, so those relative resources, Infinity and Equilibrium and the Infinity of ways going to Finite Equilibrium, must like all others have had its originating rational cause. Accepted either by mathematicians or physician, many treatises have been written to convert infinity to countable infinity.
Comparison based procedure
It as noted be Bryan Bunch10 that the commonly held belief that:
Ea/Eb = 1, where “E” is the symbol for equilibrium, is right on several counts. Since the remainder of this study deals largely with “equilibrium” in one form or another, it will be essential to have a good understanding of what “equilibrium” is all about. How¬ ever, so you will approach it by bits and pieces. For now, the most important thing to understand is that the word Infinity” of equilibrium” suffers from the problem that words in general use always have—there are many meanings that are rather poorly defined, and to handle the complexities of infinity, it will be necessary to introduce technical terms that have very specific meanings. Otherwise, you might think you were dealing with infinityl when you are actually dealing with a special sort “equilibrium” or infinity altogether. It is always easiest to begin with the natural numbers, which in this study are 1,2,3,... The three dots after 3 are a mathematician's way of saying "and so forth" or "etc." For example,
1, 2, 3, ..., 10 means
I, 2, 3, 4, 5, 6, 7, 8, 9, 10
way to say "and so forth." It is a little-known
mathematical fact that for any sequence of numbers
there is a formula that can be found that will
produce the sequence as far as it is stated and then
produce some number that is not what you had in
mind at all. Thus, the use of sequences on
intelligence tests is highly suspect. Suppose, for
example, that you are taking an intelligence test
and are presented with the sequence 1, 2, 3, with
the idea that you should supply the next number.
If you answered "4" and I marked you wrong,
then you would be upset. However, I was thinking
of a sequence whose first four terms are 1, 2, 3, 10.
These have been answered from the point of Equilibrium rates all type of operators in such Works as those manipulating serials and sequences; fortunately the learning of the operational agents of these procedures of Islam has just been equal to their zeal.
This sequence can be found by replacing n in the
formula (n - l)(n - 2)(n - 3) + n with the numbers 1,
2,3, and 4 in order.Try another one. What is the
next number in the sequence
1, 4, 9, 16, ...?
Do you see the FLAW?
Relating to the matter of EQUILIBRIM:
At every equal/standard step of your applying force step unitsto the strings of the JANT you may reach 1,4,9,16 units of tense on the strings instead of 1,2,3,4!
Then to predict the all type of results, aftermaths, side-effects etc., THE OPERATOR must propose his formula in expecting non-proportional after well proportioned, equal steps
While 25 might come to mind, it is actually 49, for I
was thinking of the sequence you get when you
replace n in
(n- l)(n-2)(n-3)(n-4) + n2
by 1,2, 3, 4, and 5 in order. If you wanted 25 as
the next number, then you probably wanted to
replace n in n2 by 1, 2, 3, 4, and 5, which is
another sequence entirely.
By now, you should see the trick that is involved.
Say you are given the sequence a, bt c and you
want to make the next number to come out x,
where x is any real number. First form the
expression
(n-l)(n-2)(n-3)
which will always have the value 0 for n - 1,n - 2,
and n = 3. Then add to (n - 1)(n - 2)(n - 3) some
expression in n that produces a, bt and c when 1, 2,
and 3 are substituted for n. (You should be able to
show that this can always be done.) The fourth
number produced by (n - l)(/n - 2)(n - 3) + (the
expression) is 6 greater than that expres¬sion
produces because (4 - 1)(4 - 2)(4 - 3) = 3 • 2 • 1 =
6. Suppose the formula that gives at b, and c gives
d as the fourth number. In stead, you get d + 6.
However, d + 6 is not necessarily equal to x. To get
x, you multiply the expression (n - l)(n - 2)(n - 3)
by some number p such that d + 6p = x. Solving for
p,
p= x-d/6
The Object of the present work is to investigate the various theories which have been put forward as to the origin of attainable Equilibriums. As being the Author-me, first state briefly the special case which can be projected to Jant Equilibrium view, and then examines the claim of those who hold that the problem has a infinity concept and not a finite origin.
For example, suppose you want to generate the sequence
1, 2, 3, 5
Then it can be obtained by substituting 1, 2, 3, 4
in order in the formula
1/6(n- l)( n-2)(n-3) + n Incidentally, if you want to use this idea to confuse a test giver, it is much more mysterious if you carry out the multiplication. It is not obvious at all that
n2/6 - n2 - 17n/6 - 1
is the correct expression to give
1, 2, 3, 5
when 1,2,3,4, is substituted for n in order.To eliminate such aberrations in sequences, a "formula1* that gives any term of the sequence should be included in the statement of the sequence.
1, 2, 3, ...,n, ...
is the Proper way to indicate the sequence of
natural numbers in order. The formula" for any
term is simply n. And is the proper way to indicate
the sequence of squares of natural numbers. The "
formula" is n2. When you see such a "formula" in
a sequence, it is called the general term of the
sequence. By conven¬tion, the sequence is formed
by replacing n in the general term by the sequence
1, 2, 3, ..., n, ...
one at a time in that order.
(The circularity of this
definition does not seem to bother anyone,
although you will see later that perhaps it
should.)To wind up this part of the discussion with
one more example, the sequence
1, 2, 3, .'..,n2 /6 - n2 + 17n/6-1,…
is a sequence that has
1, 2, 3, 5, 9
as its first 5 terms.
With the notion of a general
term in mind, the exact meaning of the three dots is
clearer. With a general term, you can find a term of
the sequence for every natural number. Even
though you do not know what the 10th or 137th
term of a particular sequence is, you can calculate
it. What is more, for every term of the sequence,
there is another term that follows it. This is one
kind of infinity. It is called a countable infinity (or
a denumerable infinity).
In this new endeavor to enlighten the countable infinity or attainable equilibrium, it has been the Author's object, by the help of simple mathematical procedures, to show from whence the countable infinity has risen, its foundation and origin, in other words, its Source and most important, fruitful result: Attainable Equilibrium. And I trust that those who study the following pages, having learned the way to reach equilibrium open to comparisons, may not lose sight of those Sources whence has arisen the vast stream which has overflowed so many post operative complaints of the Case.