
Non-Commutative Arithmetic Circuits with Division
... inversion provides a new invariant not present in the commutative setting—the height of a rational function. The height is the minimum number of nested inversions in a formula computing this rational function. For a long time, it was not even clear that the height is unbounded, and it was a major re ...
... inversion provides a new invariant not present in the commutative setting—the height of a rational function. The height is the minimum number of nested inversions in a formula computing this rational function. For a long time, it was not even clear that the height is unbounded, and it was a major re ...
An Applet-Based Proof of the Chebyshev Theorem
... • Let f be a continuous function on [a,b]. Let p(x) be a polynomial of best approximation to f on [a,b]. • If f, p has a alternating set of length n+2 or longer, then p is a polynomial of best approximation. • On the other hand, if p is a polynomial of best approximation, then it must have an altern ...
... • Let f be a continuous function on [a,b]. Let p(x) be a polynomial of best approximation to f on [a,b]. • If f, p has a alternating set of length n+2 or longer, then p is a polynomial of best approximation. • On the other hand, if p is a polynomial of best approximation, then it must have an altern ...
3.1 Quadratic Functions
... possible rational roots are factors of “c” divided by factors of “a”. • Example: f ( x) 6 x5 4 x3 12 x 4 • To find the POSSIBLE rational roots of f(x), we need the FACTORS of the leading coefficient and the factors of the constant term. Possible rational ...
... possible rational roots are factors of “c” divided by factors of “a”. • Example: f ( x) 6 x5 4 x3 12 x 4 • To find the POSSIBLE rational roots of f(x), we need the FACTORS of the leading coefficient and the factors of the constant term. Possible rational ...