Relating Sum Over Natural Numbers with Product over Primes.
A necessary
feature of all L-functions is that they can be expressed as infinite
expressions, where a sum over the natural numbers is equal to a corresponding
product over the primes for real exponents of s (s > 1).
For example
with respect to the Riemann zeta function (which is the best known) an infinite
sum over all the natural numbers is equal to an infinite product over all the
primes.
∞
So ∑1/ns =
∏1/(1 – 1/ps)
n = 1 p
So when for
example s = 2,
1/12
+ 1/22 + 1/32 + 1/42 + … = 4/3 * 8/7 * 25/24 * 49/48 * … = π2/6
However the
key significance of this relationship is missed from the conventional
mathematical perspective, where the equations are interpreted in a merely
analytic (quantitative) manner.
In fact,
properly understood both expressions are dynamically interrelated in a relative
manner with twin analytic (quantitative) and holistic (qualitative) aspects,
which operate in a complementary fashion.
If for a
moment, we concentrate on the first term of the product over primes expression
i.e. 4/3, we can view this individual term in an analytic (quantitative)
manner, which is directly related to the corresponding first prime i.e. 2.
However
this prime relates to the corresponding sum over natural numbers expression
in a complementary holistic (qualitative) manner.
So rather
than being independent, 2 as a prime is related to all even composite natural
numbers as a shared factor. So we move from the individual quantitative notion
of 2 (as an independent number) to the collective qualitative notion of that
same prime as a shared factor (and thereby interdependent with other factors)
with respect to all even natural numbers.
So again
when we view each individual prime (in the product over primes expression) in
an analytic (quantitative) manner, then in relative terms we must view each
corresponding prime (with respect to the sum over natural numbers expression)
collectively in a holistic (qualitative) fashion. Here it is seen in each case
as a shared factor of a potentially unlimited set of composite natural numbers.
However
when we now view the product of all primes with respect to the right hand
expression, the frame of reference shifts so that the collective multiplication
of these primes in complementary manner now attains a holistic (qualitative)
meaning.
Thus the
same dynamics are at work here that led us to earlier see that the multiplication
of 1 by 1 i.e. 11 * 11 = 12, entails,
relative to addition, the holistic qualitative notion of 2. Thus the collective
multiplication of the prime related terms changes interpretation from
quantitative and thereby independent (in each individual case) to qualitative
and thereby relatively interdependent (in the collective situation).
And again
in complementary fashion, when we view the addition, in the left hand expression
of all the independent natural number terms, this entails the analytic
(quantitative) notion of number.
And as
always in dynamic interactive terms, the terms of reference can switch so that
we can equally view a prime factor such as 2 in independent terms, whereby it
attains a direct quantitative significance. However, in this case, the
corresponding term in the product over primes expression i.e. 4/3, now
acquires a holistic meaning in a relative complementary manner (where the unit
members of 2 are understood as interdependent).
And finally
the collective product of all prime terms in the right hand expression can be
likewise given a quantitative meaning, with again in relative complementary
fashion, the collective sum of the natural number terms (in the left hand
expression) now acquiring by contrast a qualitative interpretation.
So the key
point is that all number terms both individually and collectively in both
expressions can be given dual analytic (quantitative) and holistic
(qualitative) interpretations.
And the
relationship between the two expressions is of a dynamic interactive nature in a complementary relative manner, where analytic is balanced by holistic and
holistic balanced by analytic interpretation respectively.
However
because in isolation all number terms can indeed be given an independent
quantitative meaning, this leads in conventional mathematical interpretation to
the reduction of holistic meaning (with respect to the various number
terms) in an absolute quantitative manner.
As we have
seen in our example above ζ(2) = π2/6.
And on
careful reflection this very value clearly reflects the dynamic relative nature
of number with respect to the Riemann zeta function, where both analytic
(linear) and holistic (circular) aspects of understanding interact in two-way
fashion with each other.
Again in conventional
mathematical terms, the crucially important infinite notion itself becomes
reduced in a merely finite linear manner.
So for
example with respect to the sum over natural numbers expression, when we add a
finite number of terms the sum is a rational number.
Thus again
with respect to ζ(2), 1/12 = 1;1/12 + 1/22 = 5/4; 1/12 + 1/22 + 1/32
= 49/36 and so on.
Likewise
when from the standard perspective we multiply a finite number of rational
terms, we obtain another rational number
Thus no
matter how many finite rational terms are added (or multiplied) in an analytic
(quantitative) manner, the sum (or product) is a rational number.
However the
fact that the infinite sum is transcendental (and not rational) clearly suggest
that a qualitatively distinct notion is required in moving from finite to
infinite with respect to the zeta function.
This
strongly suggests in turn that very relationship as between finite and infinite
is of a relative - rather than absolute - nature.
Thus the
reduced notion that somehow the infinite notion can be approached through the
successive adding (or multiplying) of finite terms in a linear quantitative
manner is without foundation.
So when one
starts by defining finite notions in an analytic (linear) manner, then the
infinite notion - by contrast - relates to corresponding holistic (circular)
interpretation.
Now once
again holistic appreciation is directly of an ineffable formless nature;
however indirectly in can then be expressed in paradoxical (i.e. circular)
rational manner.
When one
reflect on the nature of π - which is the most important of the transcendental
numbers - from the standard quantitative perspective, it reflects the
relationship of its (full) circular circumference to its line diameter.
Then when
one reflects equally on the nature of π from the (unrecognised) holistic
qualitative perspective it reflects the dynamic relationship of both pure circular
(qualitative) and linear (quantitative) understanding.
Now in my
interpretation of ζ(2), I have attempted
to show the nature of such transcendental interpretation from a holistic
(qualitative) perspective.
So the
holistic nature of transcendental understanding - directly mirrored in this
case by the nature of π - is to perfectly balance linear (quantitative) with
circular (qualitative) understanding.
Then in
this manner the quantitative result of each expression is matched by an
appropriate qualitative interpretation of the relationships involved.
It is
well known that for all even integer values of ζ(s) where s > 1, that the
quantitative results for both the sum over natural numbers and product over
primes expressions = kπs, where k is a rational number.
This
reflects the fat that the even roots of 1 can always be arranged in a
complementary manner, where for every complex root a corresponding negative root will
exist.
The fact
that such complementarity does not strictly hold for odd numbered roots
provides the holistic explanation as to why π is not involved in quantitative
results for odd
integer values of
ζ(s)
ζ(s)
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