Multicomplex number
In mathematics, the multicomplex number systems are defined inductively as follows: Let C0 be the real number system. For every n > 0 let in be a square root of −1, that is, an imaginary unit. Then
. In the multicomplex number systems one also requires that
(commutativity). Then
is the complex number system,
is the bicomplex number system,
is the tricomplex number system of Corrado Segre, and
is the multicomplex number system of order n.
Each forms a Banach algebra. G. Bayley Price has written about the function theory of multicomplex systems, providing details for the bicomplex system
The multicomplex number systems are not to be confused with Clifford numbers (elements of a Clifford algebra), since Clifford's square roots of −1 anti-commute ( when m ≠ n for Clifford).
Because the multicomplex numbers have several square roots of, 1 that commute, they also have zero divisors: despite
and
, and
despite
and
. Any product
of two distinct multicomplex units behaves as the
of the split-complex numbers, and therefore the multicomplex numbers contain a number of copies of the split-complex number plane.
With respect to subalgebra , k = 0, 1, ..., n − 1, the multicomplex system
is of dimension 2n − k over
Sources and credits
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