The "complex nonary" number system is a system with nine digits which can
represent "any" complex number as a single number (just like the decimal number
system can represent any real number).
This page aims to explain how it works, and its possible use cases.
A few number systems similar to this one, with equivalent expressive power, already exist. One example of such a system is base 2i.
The complex nonary number system is inspired by balanced ternary.
The balanced ternary number system (here
on wikipedia for a more thorough explanation) has three digits, in this document represented as
"-
",
"0
", and
"+
", which correspond to the values of -1, 0 and 1.
It is a positional number system, where every number is represented as a sequence of digits, sometimes
separated into two parts by a dot.
It is "ternary" for two reasons:
It is "balanced" because every digit has a corresponding "negative" (0
/0
,
-
/+
), so it's not "unbalanced" towards a given sign.
Because of this balance, a separate symbol to mark the sign of a number isn't needed; for example,
15 is +--0
(27-9-3+0), and -15 is -++0
(-27+9+3+0).
(other facts to be added sometime in the future)
The complex nonary number system has 9 digits, and it can represent any* complex number as a single sequence of digits, with no leading sign, possibly with a decimal point.
The nine digits represent all the coefficients of the type n+mi, with n and m any two integers between -1 and 1 (inclusive).