IMAGE DESCRIPTION:
user assures that the Riemann
hypothesis is not nicely statedβ ; mathematicians everywhere:; β a proof would be irrelevant to a mathematical theory of
everything in so much as schanuel's conjecture is false:
euler's identity is not at all an ultimately general function
of reals, instead is conjecturally the penultimately specific; I^((ββπΈ)^0)=I^((β\β)^0) WHERE (ββπΈ)^0=((β\β)^0)^(4)
WHICH PRACTICALLY MEANS, HUMBLY HOPING I'VE WRITTEN IT
DOWN RIGHT, THAT E^0β((βI)^β)β(E))/((βI)^β)β(E))
β((βI)^(β/β))β(E)=((βI)^(β/β))β(E) WHERE WE WILL ALLOW
{E=E} IF SUBSTITUTING OUR MORE DIFFICULT AXIOM
((I^(1/2))^((ββπΈ)^0))=((I^2)^((ββπΈ)^0))
I^((ββπΈ)^0=I^((ββπΈ)^0 THE DIFFICULTY IS THE INTERMEDIARY
β(βI)^(β/β)=(βI)^(β/β) WHERE
((β2)^0)^(β/β)=((-1)/(1))^(β/β)
BECAUSE OF Β±(1+I) POLYNOMIAL FACTOR SO WHY IS THE
NUMERATOR NEGATIVE BESIDES THE NEED TO AVOID (1)^β
AS INDETERMINATE? WELL WE CAN TAKE THE ZERO-SQRT OF 2
AS 'VENOMOUS' AND THE ZERO-FRSTRT OF E AS 'RAVENOUS'
WHERE {β±=-β³=(β-1)/(β)} THEN WE CAN SHOW THAT THE
INFINITE ROOT OF E HAS TO BECOME PSEUDO-β³ IE. (1+β)/(β)
"AFTER" THE INFINITE ROOT OF SQRT OF TWO DOES. WE PROVE THIS
WITH WITH THE LEMMA THAT COUNTS THE INFINITE DECIMAL β±
NUMBERS. THIS COUNT MUST INCLUDE THE INFINITESIMAL β±
YET CAN ONLY DO SO IN THE UNCOUNTABLE DIAGONAL SUCH
THAT THE β± NUMBER CANNOT BE ITS OWN INFINITE ROOT.