Ned Latham
2019-12-30 01:14:19 UTC
Abstract:
As far as I know, infinity has not as yet been defined as existing
in any number set, making its use in mathematics impossible. This
article defines a non-Abelian Group that defines it as a number.
I call the Group Infinitor, purely for want of a better name, and
use Ç as its symbol, partly for want of a better synbol and partly
as a reminder of its intersection with the natural number set.
It consists of three numbers and a division operator:
Numbers (in decreasing order of magnitude for clear definition):
¤ the natural number infinity, defined as the greatest natural number
conceivable;
¤ the natural number 1;
¤ the real number infinita, defined as the reciprocal of infinity;
Division, defined by the following enumeration of allowed
operations and their outcomes (setting a = infinita and
y = infinity and using infix / as the operator for clarity):
y / y = 1, y / 1 = y
1 / y = a, 1 / a = y
a / a = 1, a / 1 = a
As can be seen, associativity is not satisfied, but closure is and
identity and inverse elements exist. Its use is restricted, but I
suggest it can be useful in mathematical expressions that include
limits at zero and infinity.
As far as I know, infinity has not as yet been defined as existing
in any number set, making its use in mathematics impossible. This
article defines a non-Abelian Group that defines it as a number.
I call the Group Infinitor, purely for want of a better name, and
use Ç as its symbol, partly for want of a better synbol and partly
as a reminder of its intersection with the natural number set.
It consists of three numbers and a division operator:
Numbers (in decreasing order of magnitude for clear definition):
¤ the natural number infinity, defined as the greatest natural number
conceivable;
¤ the natural number 1;
¤ the real number infinita, defined as the reciprocal of infinity;
Division, defined by the following enumeration of allowed
operations and their outcomes (setting a = infinita and
y = infinity and using infix / as the operator for clarity):
y / y = 1, y / 1 = y
1 / y = a, 1 / a = y
a / a = 1, a / 1 = a
As can be seen, associativity is not satisfied, but closure is and
identity and inverse elements exist. Its use is restricted, but I
suggest it can be useful in mathematical expressions that include
limits at zero and infinity.