Before I complete the paper I am going to release, here is some more properties and conjectures to present.
Well, I actually found the Collatz conjecture useful for primes.
I began analyzing the numbers of the variable p within the Mersenne formula for finding this prime candidate. Here is what I did(here is the equation).
[math]p = \sum_{n=0}^{k}(2^{n+1} - E(k,d))(10^{n})[/math]
Where [math]E(k,d)[/math] is an element within a matrix solution of a Collatz-Matrix equation.
Here are some patterns I found:
p=257885161
(2^1 - 1) Odd
(2^2 + 2) (2^2 + (2*1)) Even
(2^3 - 7) (2^2 - ((2*2)+3)) Odd
(2^4 - 11) (2^2 - ((2*7)-3)) Odd
(2^5 - 24) (2^2 - ((2*11)+2)) Even
(2^6 - 56) (2^2 - ((2*24)+8)) Even
(2^7 - 121) (2^2 - ((2*56)+9)) Odd
(2^8 - 251) (2^2 - ((2*121)+9)) Odd
(2^9 - 510) (2^2 - ((2*251)+8)) Even
(2^3 - 7) (2^2 - ((2*2)+3))
(2^4 - 11) (2^2 - ((2*7)-3))
(2^7 - 121) (2^2 - ((2*56)+9))
(2^8 - 251) (2^2 - ((2*121)+9))
(2^2 + 2) (2^2 + ((2*1)+0))
(2^5 - 24) (2^2 - ((2*11)+2)) 0-> |6(0) - 2|
(2^6 - 56) (2^2 - ((2*24)+8)) 1 |6(-1) - 2}|
(2^9 - 510) (2^2 - ((2*251)+8))1 |6(-1) - 2}|
I found these same patterns while working on Raymond Arithmetic. Also, I noticed that the numbers can be produced using Collatz-Matrix equations. If I can some how form an equation, I may be able to form an efficient equation to predict Mersenne primes.
I have a conjecture. This will be the Collatz-Prime Predictive Conjecture.
Let us say you have the paramters: [math]\frac{x}{a}[/math], [math]bx+c[/math]
A prime formula can be written using those two parameters: [math]a^{p}-c[/math], where the predict equation would be:
[math]p = \sum_{n=m}^{k}(a^{n+1} - E(k,d))(10^{n-m})[/math]
Where k is a specific magnitude.
Where m is an even number or 0.
The conjecture is that this equation for a specific set of parameters can predict the numbers needed for primality.
[math]2^{\sum_{n=m}^{k}(2^{n+1} - E(k,d))(10^{n-m})} - 1[/math]
[math]a^{\sum_{n=m}^{k}(a^{n+1} - E(k,d))(10^{n-m})} - 1[/math]
Sub-conjecture: Let us say there is this equation:
And the formula for the prime is the following:
Then, , which this notation implies that the number will be located in any of the matrix solutions produced by this Collatz-Matrix equation.
This is proven slightly by the work above.
Here is some more work I did that is the beginning of the other equations provided:
[math]\left \{ \frac{x}{a} \right \}\rightarrow \left \{ bx+c \right \}[/math]
[math]\left \{ 1 \right \}\rightarrow \left \{ a^{x} \right \}\rightarrow \left \{ a^{2}x+bax+c \right \}\rightarrow \left \{ C \right \}[/math] Where C is the variance in the hailstone sequences.(equations based off of hailstone sequences).
[math]\left\{ C \right \}\leftarrow \left \{ q+a^{3}b, w+a^{2}b, e+a^{1}b, p+a^{0}b \right \} \leftarrow \left \{ q,w,e,p \right \}\leftarrow \left \{ 1 \right \}[/math]
[math]q = b^{2} +bp + c[/math]
[math]a^{\sum_{n=m}^{k}(a^{n+1} - E(k,d))(10^{n-m})} - c[/math]
Which can be also written as:
[math]a^{\sum_{n=m}^{k}(a^{n+1} - E(k,d))\times 10^{n-m}} - c[/math]
[math]\sum_{n=m}^{\infty}(a^{n+1} - E(k,d))\times 10^{n-m} = \infty[/math]
Where m is an even number or 0.
Which also is referenced in this way:
Where the variables [math]d_{i}[/math] and [math]d_{e}[/math] are a part of the Collatzian ratio.
[math]d_{r}=\frac{d_{i}}{d_{e}}[/math]
[math]d_{c}=\frac{d_{e}x-d_{e}-d_{i}x}{d_{i}} = (a_{f}v_{f})-(b_{f}u_{f})[/math]
Hailstone-Exception Conjecture:
Let us say there is the Hailstone-exception:
[math]\left \{ a,b \right \}[/math]
The variable b will always be prime.
The variable a will always be a semi-prime.
Hailstone-Sequence Default Conjecture:
If the initial value of a Hailstone sequence(applying the Collatz conjecture) is equal to [math]d_{i}[/math], where the [math]bx+c[/math] is to be [math]\frac{d_{i}x + d_{e}}{d_{e}}[/math], then the Hailstone sequence will look like the following.
[math]\left \{ d_{i} \right \}\rightarrow\left \{ q+r^{3}d_{i},w+r^{2}d_{i},e+r^{1}d_{i},p+r^{0}d_{i} \right \}\rightarrow \left \{ q,w,e,p \right \}\rightarrow \left \{ 1 \right \}[/math]
Hailstone-Sequence Complete Conjecture:
If the initial value of a Hailstone sequence(applying the Collatz conjecture) is equal to [math]d_{i}[/math], where the [math]bx+c[/math] is to be [math]\frac{d_{i}x + d_{e}}{d_{e}}[/math], then the Hailstone sequence will look like the following.
[math]\left \{ d_{i} \right \}\rightarrow\left \{ q+r^{3}d_{i},w+r^{2}d_{i},e+r^{1}d_{i},p+r^{0}d_{i} \right \}\rightarrow \left \{ q,w,e,p \right \}\rightarrow \left \{ d_{e} \right \}[/math]
These hailstone equations show the relationship between [math]d_{i}[/math] and [math]d_{e}[/math].