Tuesday, October 25, 2016

Buddhist Mathematics

The most famous sutra (teaching) in Mahayana Buddhism is known as the Heart sutra which contains - according to one commonly used translation - the following lines

"Form is not other than Void, Void is not other than Form".

I will here briefly attempt to explain the deep meaning of these lines and their potential great significance in mathematical terms.

Form relates to material phenomena, which in dualistic terms are largely understood as possessing a distinct independent existence.

Indeed this is what gives phenomena a customary rigid identity in analytic terms.

However the corresponding holistic perspective is to view  phenomena not in terms of their distinct quantifiable identity, but rather with respect to the qualitative interdependence which ultimately connect all phenomena.

And such holistic appreciation relates directly to intuitive realisation that is the hallmark of advanced contemplative type awareness.

The culmination of such holistic awareness then leads to the realisation of the unity of all form (with respect to a common underlying spiritual identity).

However this ultimate appreciation of the qualitative interdependence of all reality requires corresponding detachment from the recognition of phenomena of form with respect to their separate phenomenal identity.

Thus the unity of all form coincides therefore with the emptiness (i.e. nothingness) of such form  (in a separate phenomenal manner).

Of course in experiential terms this can only be approximated in a dynamic relative fashion.

Thus as the underlying spiritual unity of all creation becomes more evident, (distinct) phenomena of form become ever more transient as they arise and pass away from attention with increasing alacrity.

Eventually, the temporary dynamic nature of distinct phenomena will not even appear to be present in consciousness (though indirectly they must still be generated).

So at this stage, the unity of all form (as the actual realisation of the underlying spiritual nature of all  phenomena) will approximate ever more closely to the (empty) void, as the pure potential basis for the subsequent emergence (in actual terms) of all such phenomena.


Now this has a direct relevance for mathematical appreciation.

The two most fundamental numbers are 0 and 1

From the customary analytic perspective, these two digits are given an absolutely separate independent identity.

Their great significance is demonstrated by the binary digital system on which the present IT revolution is based. So all information can be potentially encoded through the analytic use of the two digits 1 and 0!

However, what is not all clearly recognised is that all mathematical symbols and relationships, with a customary analytic interpretation (in quantitative terms), can equally be given a holistic interpretation (with immense potential implications from a qualitative perspective).

Therefore 1 and 0 have an important holistic meaning, which complements their accepted analytic interpretation.

And just as 1 and 0 are considered to be absolutely separate in analytic terms. they are considered as fully relative - and ultimately identical - with each other from the corresponding holistic perspective.

So, in holistic terms, 1 and 0 are seen - as it were - two sides of the same coin, which mutually imply each other.

Thus 1 (as the qualitative unity of all relatively distinct phenomena) implies 0 (as the corresponding nothingness with respect to a separate identity in quantitative terms) and vice versa.

Therefore in holistic mathematical terms, the lines quoted above from the Buddhist heart sutra, could be simply represented as

1 is (ultimately) indistinguishable from 0, and 0 is (ultimately) indistinguishable from 1.

However the clear implications of such understanding is that we have to let go of the absolute identity of mathematical symbols in both analytic and holistic terms.

Thus both the analytic (Type 1) and holistic (Type 2)  aspects of the number system can only be rightfully understood in a dynamic interactive  manner. Thus notions of both quantitative independence and qualitative interdependence respectively, are now understood as complementary notions with a relative - rather than absolute - meaning.


Now we will briefly see how these analytic and holistic interpretations directly apply to the simplest of numbers.

For example when we understand "3" in the customary analytic manner, it can be defined as

3 = 1 + 1 + 1.

So the individual units are understood here in an independent homogeneous quantitative manner (that - literally - lack qualitative distinction).  So we have no way of distinguishing the separate units from each other (which would require some unique qualitative feature).


In more complete terms, we can express this quantitative notion of "3" in Type 1 terms as 31.

Alternatively this can be expressed - using units only - as (1 + 1 + 1)1.


However, when we understand "3" in the unrecognised holistic manner, interpretation is subtly inverted.

So here "3" represents - not individual separate units of quantity - but rather the collective interdependence of all units in a collective manner.

Then in a direct manner, just as analytic appreciation occurs in a rational, holistic appreciation occurs in a complementary intuitive manner!

This latter aspect of number is more fully expressed in Type 2 terms as 13.

Alternatively this can be expressed as 1(1 + 1+ 1).


So now both The Type 1 and Type 2 aspects have been expressed with reference to the number "1".

However when we appreciate these two aspects appropriately in a dynamic interactive manner (i.e. in Type 3 terms) it becomes apparent, like the turns at a crossroads, that the use here of 1 is inherently paradoxical.

So once again using our crossroads example in heading up a road (in a N direction) that a left turn at the crossroads can be unambiguously identified.
Likewise in a reverse manner, in heading down the road (in the opposite S direction) that the left turn at the crossroads can again be unambiguously identified.

However when, in a dynamic interactive manner, we attempt to embrace the approach to the crossroads simultaneously "seeing" from both N and S directions, then the identification of a left turn is rendered paradoxical. For what is left from one direction (say heading N) is right from the opposite direction (heading S) and vice versa.

It is quite similar in number terms. What is identified as 1 (from the Type 1 perspective) is in fact 0 (from the corresponding Type 2 perspective). Likewise what is identified as 0 (from the Type 1 perspective) is 1 (from the complementary Type 2 perspective).


Let us look at this again at our example more closely to identify why this in fact is so.

Now again with respect to  31,  I refer to 3 as the base and 1 as the corresponding dimensional number respectively.

Then when we identify the base number 3 = ( 1 + 1 + 1) in quantitative terms, the corresponding dimensional number 1 (in Type 3 terms) should correctly be interpreted in a complementary qualitative manner.

In other words, whereas the base number 3 (= 1 + 1 + 1) refers to an actual number (in quantitative terms), the corresponding dimensional number 1 refers - in this relative context - to the potential for number existence (in a qualitative manner).

So whereas the actual number is finite (in quantitative terms), the number dimension is strictly speaking infinite in nature (potentially applying to any number).

Therefore the number dimension - having a qualitative meaning that provides the basis for subsequent relationships between numbers - is nothing (i.e. 0) in an actual quantitative manner.

So 1 as used in a qualitative context is strictly 0 (in corresponding quantitative terms).


Likewise with respect to 13, the meaning of 1 is subtly inverted, as now implying the base unit for all subsequent qualitative relationships (where interdependence is achieved).

Then in relative terms  3 (= 1 + 1 + 1) now carries a numerical significance in dimensional terms (as 3 related dimensions).

However what has a finite numerical meaning in a qualitative manner, strictly has no meaning in quantitative terms.

So again 1 (where 1 now numerically refers to qualitative identity) is strictly 0 in a corresponding quantitative dimensional manner.

In fact, we can indirectly show how this is so!

With respect to 13, we can indirectly express in a quantitative manner the circular nature of interdependence that attaches here to the 3 dimensional units by obtaining the 3 roots of 1.

So the 3 roots of 1 are 1, .5 + .866i and .5 .866i respective, which geometrically can be expressed as 3 equidistant points on the unit circle in the complex plane.

And the collective sum of these roots = 0. Holistically this can be explained by the fact that these express (in an indirect quantitative manner) the qualitative notions of 1st, 2nd and 3rd (in the context of a group of 3 members).

Thus wheres cardinal identity relates to the quantitative nature of number (made up of independent individual units), in this context, ordinal identity relates by contrast to the corresponding qualitative nature of number (whereby the collective interdependent identity of unique units is expressed).


So if we are to properly understand the nature of number in dynamic interactive terms, we must recognise the complementary nature of both analytic and holistic aspects (where number is defined - relatively - in both linear and circular terms).

The implication of this is that the very nature of 1 and 0 now must likewise seamlessly switch as between each other. So what is 1 in a quantitative context is 0 in a corresponding qualitative manner; likewise what is 1 in a qualitative context is likewise 0 in a corresponding quantitative manner.

Therefore the ultimate nature of number approaches a state of pure ineffable mystery, where both linear and circular frames of reference are united in the pure marriage of both the quantitative and qualitative interpretation of mathematical symbols.

And here we have the holistic identity of 1 and 0 that ceaselessly change between each other.  

Thursday, September 1, 2016

Further Investigation

In the last blog entry I suggested that a simple relationship governs the relationship of irreducible to reducible fractions (relating to the fractions in the Type 2 aspect of the number system that express the n roots of 1).

So again for example if n = 9, the n roots can be expressed in Type 2 terms as 11/9, 12/9, 13/9, 14/9, 15/9, 16/9, 17/9, 18/9 and 19/9.

So the nine fractions in question here are 1/9, 2/9, 3/9, 4/9, 5/9, 6/9, 7/9, 8/9 and 9/9.

Of these 1/9, 2/9, 4/9, 5/9, 7/9 and 8/9 are irreducible (as numerator and denominator have no common factors).

By contrast however 3/9, 6/9 and 9/9 are reducible!

So the hypothesis I offered was that the average proportion of irreducible fractions with respect to the number system as a whole → 1/(1 + 2/π) = π/(π + 2).
Therefore the average proportion of reducible fractions for the number system as a whole → 1/(1 + π/2) = 2/(π + 2).

This would entail that on average about 61.1% of fractions would be irreducible and 38.9% reducible.

Expressed even more simple the average ratio of irreducible to reducible fractions  π/2 or alternatively the average ratio of reducible to irreducible fractions 2/π. 


I then went on to consider the proportion of irreducible factors that would apply to the roots of those numbers with non-repeating and repeating prime structures respectively.

So excluding 1, the numbers between 2 and 10 with non-repeating prime structures are 2, 3, 5, 6, 7 and 10, whereas 4, 8 and 9 have repeating prime structures (relating to its constituent prime factors).

And again for the number system as a whole, the average proportion of numbers with non-repeating prime structures number → 1/(1 + 2/π) = π/(π + 2). And the corresponding proportion of numbers with repeating prime structures  → 1/(1 + π/2) = 2/(π + 2).  


Now one would expect that a higher proportion of irreducible factors would apply with respect to those numbers with non-repeating prime structures.

From my preliminary estimates it seems that another simple pattern comes into focus.
It would appear that with respect to the numbers with non-repeating prime structures that the average proportion of irreducible factors  → (π – 1)π = .68169....


This therefore would imply that the average proportion of irreducible factors for numbers with repeating prime structures  →.5.

Expressed another way, this would thereby imply that for  numbers with repeating prime structures the average proportion of both reducible and irreducible fractions would approach equality or alternatively that the ratio of reducible to the ratio of non-reducible factors (for  numbers with repeating prime structures) → 1. 

Monday, August 29, 2016

Another Interesting Relationship

In an earlier blog entry, “Remarkable Features of the Number System 1”, I drew attention to a very simple relationship governing the ratio of numbers with non-repeating to numbers with repeating prime structures respectively.

Once again when each prime occurs but once in the unique factor composition of a number, then it is termed as a number with a non-repeating structure.

So for example 30 = 2 * 3 * 5 represents a number with a non-repeating prime structure (as each factor occurs but once).

However when one or more primes is repeated in the unique factor composition of that number then it is a number with a repeating prime structure.

So in this context, for example 28 = 2 * 2 * 7 represents a number with a repeating prime structure (as 2 in this case occurs twice).

Basically, I concluded following a fairly extensive range of empirical testing, that for the number system as a whole, the average frequency of numbers with non-repeating prime structures → 1/(1 + 2/π)  = π/(π + 2) and that the corresponding average frequency of numbers with repeating prime structures → 1/(1 + π/2) = 2/(π  + 2).

Therefore the ratio of numbers with non-repeating to repeating prime structures (for the number system as a whole) → π/2.

Alternatively, we could say that the ratio of numbers with repeating to non-repeating prime structures (for the number system as a whole) → 2/π.   

Now of course this represents a Type 1 view of number where the unique prime factors of each number is expressed with respect to the default dimensional power of 1.

So 3 for example as a constituent factor, is more fully expressed = 31.


Recently my attention turned to what in fact represents a complementary type problem.

We can view the various roots of a number in Type 2 terms, where now in inverse terms, the default base number of 1 is raised to dimensional powers that can vary.

So for example the 3 roots of 1 would thereby be expressed as 11/3, 12/3 and 13/3 respectively. Thus concentrating on the dimensional values (representing the Type 2 notion of number) the three values are 1/3, 2/3 and 3/3 respectively.

In more general terms, the n roots of 1 - again concentrating on the dimensional values - will range over all the natural numbers from 1/n to n/n.

Now clearly where these reflect the prime roots of 1, when we exclude the final fractional value (which always reduces to 1) all the other fractional values will be irreducible. In other words it will not be possible to reduce any of these factors to a smaller fraction (as no common factor can exist with respect to both numerator and denominator).
However where a composite number n is involved, the n roots of 1 will then yield fractional values where some are reducible and others non-reducible.

For example if we take the 12 roots of 1 (where of course 12 is composite) the 12 fractional values generated will be 1/12, 2/12, 3/12, 4/12, 5/12, 6/12, 7/12, 8/12, 9/12, 10/12, 11/12 and 12/12.

Now, we can easily see that 1/12, 5/12, 7/12 and 11/12 are irreducible fractions.

However the remaining fractions here i.e. 2/12, 3/12, 4/12, 6/12, 8/12, 9/12, 10/12 and 12/12 are reducible (with both numerator and denominator containing common factors). 

An interesting question then arises with respect to the number system as a whole, as to the average frequency of fractional values that are irreducible and reducible respectively.

Remarkably, this parallels closely the earlier relationship as to the average frequency of numbers with non-repeating and repeating prime structures respectively.

So the hypothesis that I now offer is that the average frequency of fractional values that are irreducible → 1/(1 + 2/π)  = π/(π + 2); then the average frequency of fractional values that are reducible → 1/(1 + π/2) = 2/(π + 2).

So, therefore the ratio of irreducible to reducible fractions → π/2.

Alternatively, the ratio of reducible to irreducible fractions → 2/π.

Now, I counted all the irreducible fractions for roots of all numbers to 100 = 3054 (approx). relative to all fractions (5050). This works out at .60475 which is slightly less than π/(π + 2) = .61101.

Now in counting up irreducible fractions, the primes make the greatest contribution. So if n is a prime n – 1 will be irreducible fractions.

The formula n (log n – 1) predicts 47 primes up to 200 with the actual occurrence = 46.

However it predicts 28 up to 100 (where the actual occurrence = 25.

This would suggest that the actual frequency of primes is less than what would be generally expected up to 100 which accounts in large measure for the underestimate that I obtained.

However if one counts all fractions to 110 where the actual no. of primes = 29 against a predicted value of 30, one now gets the much better estimate of 3726/6105 = .6103.

So there is little doubt to my mind that the formula I have suggested is the correct one, bearing a direct complementary (Type 2) relationship to the earlier (Type 1) that was mentioned in relation to the average frequency of numbers with non-repeating primes.

In fact the intuitive realisation of this fact had already suggested to me what the answer would be before I actually carried out any numerical calculations to verify its nature. 

Tuesday, June 14, 2016

More Interesting Relationships

Here are some interesting relationships, which I discovered some time ago in relation to the Riemann Zeta Function (for positive integers > 1).

 ∑{ζ(s) – 1} ~ 1 (for s = 2, 3, 4,…..)

For example from adding up values for s = 2 to 10, we obtain

.6449 + .20205 + .08232 + .03692 + .0173 + .00834 + .00407 + .002008 + .000904

= .99812 (which is already close to 1)


Then  ∑{ζ(s) – 1} ~ .75 (for even values of s i.e. s = 2, 4, 6, …)

So for even values of s from 2 to 10, we obtain

.6449 + .08232 + .0173 + .00407 + .000904

= .749494 (which again is very close to .75).


Also ∑{ζ(s) – 1} ~ .25 (for odd values of s i.e. 3, 5, 7, ….)  

So for odd values of s from 3 to 10, we obtain

.20205 + .03692 + .00834 + .002008

= .249318 (which for just 4 values computed is again close to .25)  


There are also interesting connections as between the Riemann zeta function (for positive integer values of s and the Euler- Mascheroni constant i.e. γ = .5772156649…

As is well known for ζ(s) where s = 1 (i.e. the harmonic series) and the summation of the series is taken over a finite set of values n,

ζ(1) = log n + γ

However γ in turn is related to all ζ(s) - now summed without limit - for the other positive integer values of s in the following manner!

γ = ζ(2)/2 ζ(3)/3 + ζ(4)/4 ζ(5)/5 + ……

So for s = 2 to 10, we obtain

1.644934/2 1.202056/3 + 1.082323/4 1.03692/5 + 1.0173/6 1.00834/7 + 1/00407/8 – 1.002008/9 + 1.000904/10

= .62474….

Now this approximation is still not very accurate, but in this case the series the series diverges very slowly towards the true value (oscillating alternating above and below the true value).

A better approximation however can be obtained as follows:

1 – γ  = {ζ(2)/2 – 1}/2 + { ζ(3)/3 – 1}/3 + {ζ(4)/4 1}/4 + {ζ(5)/5 – 1}/5 + ……

So again summing for s = 2 to 10, we obtain

.644934/2 + .202056/3 + 082323/4 + .03692/5 + .0173/6 + .00834/7 + .00407/8 + .002008/9 + .000904/10

= .42268 (correct to 5 decimal places) which gives γ = .57732 which is already a very good approximation to the true value i.e. .5772156649…


Also ζ(s)/ζ(s + 1)   ~ 1, and

{ζ(s) 1}/{ζ(s + 1) 1}   ~ 2, again for sufficiently large t.


For example ζ(9) = 1.002008 and ζ(10) = 1.000904

Therefore ζ(9)/ ζ(10) = 1.002008/1.000904 = 1.0011… (which is already close to 1)


Likewise ζ(9) 1 = .002008 and ζ(10) 1 = .000904

Therefore {ζ(9) 1}/{ζ(10) 1} = .002008/.000904 = 2.2212…
This is not yet very close to 2. However for larger t the ratio will progressively fall towards 2!


In all cases i.e. for positive integers > 1, ζ(s) can be expressed as 1 + k (where k is less than 1)

So for example ζ(2) = 1.6449… = 1 + .6449…

We can then define a “complementary” number as 1 – k

So in the case of  ζ(2), 1 – k = 1 – .6449… = .3551

We can now define a new set of twin relationship as πs/ts1 = 1 + k and πs/ts2 = 1 k respectively.

ts1 and ts2 new are the two denominators associated with the common numerator πs.

For example when s = 2,  π2/6 = 1 + .6449… and π2/27.79… = 1 – .6449… respectively.

So here, ts1 = 6 and ts2 = 27.79… respectively

And the difference of ts2  and ts1  = 27.79 – 6 = 21.79…


When s grows sufficiently large {ts2   ts1}/{t(s + 1)2   t(s + 1)1}  ~ 2/π

For example when s = 9, k = .002008; ts1 = 29749 (to nearest integer) and ts2 = 29869.

Therefore ts2  ts1   = 120.


When s = 10, k = .000904; t(s + 1)1  = 93555 and t(s + 1)2  = 93733 

Therefore t(s + 1)2   t(s + 1)1   = 178

So {ts2   ts1}/{t(s + 1)2   t(s + 1)1}  = 120/178 = .6741…

This compares fairly well with 2/π = .6366..

And the approximation steadily improves for larger s.

Wednesday, June 8, 2016

Approximating the Non-Trivial Zeros (2)

Having approximated the first 10 of the non-trivial zeros, I decided to continue on an calculate the first 30.

Once again I am used the slightly modified formula i.e. t/2π(log t/2π –  1) + 1.

And as there are 29 non-trivial zeros up to 100, this means that we have thereby approximated all the non-trivial zeros for t to 100!

However in the original approximation of values, where I adjusted the first calculation for each zero downward (by half the deviation from the next value), a bias still remained in that the overall sum of the actual zeros tended to be consistently overshoot that of the corresponding approximations. Therfore in the attempt to eliminate this bias I decided to use a new adjustment factor (based on the devations of the 1st set of approximations).

Therfore to more accurately approximate the nth zero, I decided to multiply the deviation as between the nth and (n + 1)st value by (1 – 2/π) and then subtract this from the original 1st approximation.

So below, I have provided a table showing the three different approximations, together with the acual values for the trivial zeros.

I have then highlighted the most recent approximations and actual values in bold type for easier comparison.



Riemann Zeros
Predicted Location (1)
Deviation of Zeros
Predicted Location (2)
Predicted Location (3)
Actual Location
    1st
    17.08

    14.34
    15.09
    14.13
    2nd
    22.56
    5.48
    20.27
    20.90
    21.02
    3rd
    27.14
    4.58
    25.09
    25.65
    25.01
    4th
    31.24
    4.10
    29.34
    29.86
    30.43
    5th
    35.04
    3.80
    33.28
    33.76
    32.94
    6th 
    38.56
    3.52
    36.88
    37.34
    37.59
    7th
    41.92
    3.36
    40.28
    40.73   
    40.92
    8th
    45.20
    3.28
    43.64
    44.06
    43.33
    9th
    48.33
    3.13
    46.82
    47.23
    48.01
  10th
    51.36
    3.03 
    49.89
    50.29
    49.77
  11th
    54.31
    2.95
    52.87
    53.26
    52.97
  12th
    57.19
    2.88
    55.78
    56.17
    56.45
  13th
    60.00
    2.81
    58.62
    59.18
    59.35
  14th
    62.76
    2.76
    61.40
    61.78
    60.83
  15th
    65.47
    2.71
    64.14
    64.51
    65.11
  16th
    68.12
    2.65
    66.81
    67.17
    67.08
  17th
    70.74
    2.62
    69.45
    69.80
    69.55
  18th
    73.32
    2.58
    72.05
    72.40
    72.07
  19th
    75.86
    2.54
    74.61
    74.95
    75.70
  20th
    78.36
    2.50
    77.12
    77.46
    77.14
  21st
    80.83
    2.47
    79.60
    79.94
    79.34
  22nd
    83.28
    2.45
    82.07
    82.40
    82.91
  23rd
    85.70
    2.42
    84.50
    84.83
    84.74
  24th
    88.09
    2.40
    86.91
    87.23
    87.43
  25th
    90.46
    2.37
    89.29
    89.61
    88.81
  26th
    92.80
    2.34
    91.64
    91.95
    92.49
  27th
    95.12
    2.32
    93.96
    94.28
    94.65
  28th
    97.43
    2.31
    96.28
    96.60
    95.87
  29th
    99.72
    2.29
    98.59
    98.90
    98.83
  30th
  101.98
    2.26
  100.86
  101.17
  101.32
  31st
  104.22
    2.24





Once again, I consider it striking how the simple general formula provides such a convenient means for calculating, with stunning accuracy, not only the frequency of zeros up to any given t, but likewise a ready means for approximating the value for each one of the trivial zeros.

The difference as between the actual values for the zeros and their corresponding approximations is due to the local random nature of the zeros.

However this randomness is at the other extreme from the primes. In fact both the primes and trivial zeros complement each other in a dynamic interactive manner.

So the behviour of individual primes is as independent as possible consistent with maintaining an overall collective interdependence with each other (through the natural numbers).

However the collective behaviour of the non-trivial zeros is as interdependent (i.e. ordered) as possible, consistent with each zero maintaining an individual local independence.

Therefore whereas the simple general formula for frequency of  primes can only hope to predict with a strictly relative degree of accuracy, the corresponding formula for frequency of non-trivial zeros can predict in absolute terms with a remarkable level of accuracy.