Apply the transformations on the graph of $p(x)=\(\sqrt{x}\)$ into the graph of $h(x)=4\(\sqrt{x-3}\)-6$ . Check your work with the help of a graphing calculator.

Write the new equation after shifting the given graph as stated below. Also, plot both graphs using the same rectangular coordinate system.

$y=\(\frac\)13(x-5)+2$ Down $2$ units, right $3$ units

Determine $(uov)(x)$ and $(v o u) (x)$ for the following $u(x)$ and $v(x)$.

$u(x)=x^7$

$v(x)=x^4-6$

Consider the functions $f_1\left(x\right)=\frac{1}{2}{x}^3$ and $f_2\left(x\right)=\mid \frac{1}{2}{x}^3\mid$. Graph them together and describe how applying the absolute value function in $f_2$ modifies the graph of $f_1$.

Using the defined functions $p\left(x\right)=x^2-1$ and , evaluate $q\left(p\left(1\right)\right)$.

Solve the equation $9^{x-5}=102$ for $x$.

For the given expression, simplify.

$e^{x^2\ln (5x^2+7)}$

Determine the inverse of the function and its domain: $g\(\left\)(x\(\right\))=\(\left\)(x-2\(\right\))^3$

Simplify ${\left(e^{-5}\right)}^{\frac{2}{3}}$.

Which of the following is true for $e^{2c}$?

For all $x>0$, is the following equation valid?

$4^x=4^{\ln x}$