Wheel Theory - The Algebra of Wheels

The Algebra of Wheels

Wheels discard the usual notion of division being a binary operator, replacing it with multiplication by a unary operator similar (but not identical) to the reciprocal, such that becomes short-hand for, and modifies the rules of algebra such that

  • in the general case.
  • in the general case.
  • in the general case, as is not the same as the multiplicative inverse of .

Precisely, a wheel is an algebraic structure with operations binary addition, multiplication, constants 0, 1 and unary, satisfying:

  • Addition and multiplication are commutative and associative, with 0 and 1 as identities respectively
  • and

If there is an element with, then we may define negation by and .

Other identities that may be derived are

However, if and we get the usual

The subset is always a commutative ring if negation can be defined as above, and every commutative ring is such a subset of a wheel. If is an invertible element of the commutative ring, then . Thus, whenever makes sense, it is equal to, but the latter is always defined, also when .

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    The jeweled stripes on the window ran straight down when the train stopped and got more and more oblique as it speeded up. The wheels rumbled in her head, saying Man-hattan Tran-sfer Man-hattan Tran-sfer.
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