The set of non-negative real numbers<|>The set of non-zero real numbers<|>The set of positive real numbers<|>The set of all real numbers
Domain of f(x) = 5^x
The set of all real numbers
Range of f(x) = 5^x
The set of positive real numbers
Domain of g(x) = log5 x
The set of positive real numbers
Range of g(x) = log5 x
The set of all real numbers
Domain of h(x) = 5/x^3
The set of non-zero real numbers
Range of h(x) = 5/x^3
The set of non-zero real numbers
Range of k^-1(x)
The set of non-negative real numbers
Domain of k^-1(x)
The set of all real numbers
Inverse of the function whose graph is shown
Number of zeros
None<|>Only 1<|>At most 1<|>At least 1
Number of zeros of the logarithmic function in 9A
None
Number of zeros of the exponential function in 9B
None
Number of zeros of the exponential function in 9C
None
Number of zeros of the exponential function in 9D
Only 1
Number of y-intercepts
None<|>Only 1<|>At most 1<|>At least 1
Number of y-intercepts of a rational function
At most 1
Number of y-intercepts of an exponential function f(x) = b^x
Only 1
Number of y-intercepts of a logarithmic function f(x) = log_b x
Only 1
f(x) = ((x-a)(x-b)(x-c)(x-d))/(x-p)(x-q)(x-r))
f(x)
x, x < 0
x, x ≥ 0
f(p) = 5 and g(p) = -4
f + g gives the greatest value
f - g gives the least value
Inverse of f(x) = x + 5
f^-1(x) = x - 5
To find the inverse of f
Use (f + g)(x) = 0, (f/h)(x) = 1, (fk)(x) = x^2, and (f ∘ m)(x) = x
To find f(x) when (f ∘ g)(x) = 5x and g(x) = 3 - x
f(x) = 15 - 5x
To solve for p(x) when (p ∘ q)(x) and q(x) are known
Use (p ∘ q)[q^-1(x)]
The half life of a chemical is 6 hours. The feeds were graded to be safe for chicken consumption with not more than 12.5% contamination of that chemical.