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Ratio Hayy2(n) -->1 , as n-->Infinity
, where Hayy2(n) is defined as below .
(SUM
OF THE POWERS , EQUAL TO A POWER AT
INFINITY) theorem is analysed in following .
Let (d , m1 , m2 , t) are any
finite integers , then the functions a1(n) , a2(n) , b(n)
are defined as follows where n
is another integer going to infinity.
and
Binomial coefficient C(x,y) is given by
--->
In fact theorem of El'Hayy2 may be obtained from El'KAyyum
For d=1 , we have the condition
of (FLT) type equations . So , for some values of the
integers a1(n) , a2(n) ,
b(n) at infinity , we indeed have a solution
for (FLT). ;
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For finite values of
n ; the integers
a1(n) , a2(n) , b(n) --
almost satisfy the FLT , for
the powers of t . Therefore a1(n)
, a2(n) , b(n) will
be called , a set of almost FLT integers of the order t . As n => Infinity, almost FLT integers of order t , will turn out to be exact FLT integers of the order t . |
ALMOST is a concept in mathematics
for more information on this concept please refer to the following
links;
ALMOST
integer
ALMOST
prime
ALMOST
alternating link
ALMOST
alternating knot
ALMOST
everywhere
ALMOST
perfect number
Of course there is no almost FLT integers in these
links, since this
ALMOST
concept is a new one.
We should present our gratitudes to Professor Eric W. Weisstein for his
immense work in math and science to prepare these links
We
should also give our thanks to Professor Andrew Wiles , since
for
finite integers of , [a1(n) , a2(n) , b(n)]
and t ; he proved that there is no exact
solution for the system.
But for
integers of [a1(n) , a2(n) , b(n)] going to
infinity according to a
certain rule and
with finite value of t=2,3,4......] , it is seen here that ,
there is
an approached solution . We think
that this fact deserves an attention from
mathematical community.