QUESTION IMAGE
Question
find the derivative of the function using the definition of derivative. ( g(t) = \frac{1 - 2t}{6 + t} ) ( g(t) = ) blank state the domain of the function. (enter your answer using interval notation.) blank state the domain of its derivative. (enter your answer using interval notation.) blank
Part 1: Find the derivative \( G'(t) \) using the definition of derivative
The definition of the derivative of a function \( G(t) \) is:
\[
G'(t) = \lim_{h \to 0} \frac{G(t + h) - G(t)}{h}
\]
Step 1: Compute \( G(t + h) \)
Given \( G(t) = \frac{1 - 2t}{6 + t} \), we substitute \( t + h \) into the function:
\[
G(t + h) = \frac{1 - 2(t + h)}{6 + (t + h)} = \frac{1 - 2t - 2h}{6 + t + h}
\]
Step 2: Compute \( G(t + h) - G(t) \)
\[
\]
Expand the numerator:
\[
\]
So, \( G(t + h) - G(t) = \frac{-13h}{(6 + t + h)(6 + t)} \)
Step 3: Divide by \( h \) and take the limit as \( h \to 0 \)
\[
\]
Now, take the limit as \( h \to 0 \):
\[
G'(t) = \lim_{h \to 0} \frac{-13}{(6 + t + h)(6 + t)} = \frac{-13}{(6 + t)(6 + t)} = \frac{-13}{(6 + t)^2}
\]
Part 2: State the domain of the function \( G(t) \)
The function \( G(t) = \frac{1 - 2t}{6 + t} \) is a rational function. The denominator cannot be zero:
\[
6 + t
eq 0 \implies t
eq -6
\]
So, the domain of \( G(t) \) is \( (-\infty, -6) \cup (-6, \infty) \)
Part 3: State the domain of its derivative \( G'(t) \)
The derivative \( G'(t) = \frac{-13}{(6 + t)^2} \) is also a rational function. The denominator \( (6 + t)^2 \) cannot be zero:
\[
(6 + t)^2
eq 0 \implies 6 + t
eq 0 \implies t
eq -6
\]
So, the domain of \( G'(t) \) is \( (-\infty, -6) \cup (-6, \infty) \)
Final Answers
- Derivative: \( \boldsymbol{G'(t) = \frac{-13}{(6 + t)^2}} \)
- Domain of \( G(t) \): \( \boldsymbol{(-\infty, -6) \cup (-6, \infty)} \)
- Domain of \( G'(t) \): \( \boldsymbol{(-\infty, -6) \cup (-6, \infty)} \)
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Part 1: Find the derivative \( G'(t) \) using the definition of derivative
The definition of the derivative of a function \( G(t) \) is:
\[
G'(t) = \lim_{h \to 0} \frac{G(t + h) - G(t)}{h}
\]
Step 1: Compute \( G(t + h) \)
Given \( G(t) = \frac{1 - 2t}{6 + t} \), we substitute \( t + h \) into the function:
\[
G(t + h) = \frac{1 - 2(t + h)}{6 + (t + h)} = \frac{1 - 2t - 2h}{6 + t + h}
\]
Step 2: Compute \( G(t + h) - G(t) \)
\[
\]
Expand the numerator:
\[
\]
So, \( G(t + h) - G(t) = \frac{-13h}{(6 + t + h)(6 + t)} \)
Step 3: Divide by \( h \) and take the limit as \( h \to 0 \)
\[
\]
Now, take the limit as \( h \to 0 \):
\[
G'(t) = \lim_{h \to 0} \frac{-13}{(6 + t + h)(6 + t)} = \frac{-13}{(6 + t)(6 + t)} = \frac{-13}{(6 + t)^2}
\]
Part 2: State the domain of the function \( G(t) \)
The function \( G(t) = \frac{1 - 2t}{6 + t} \) is a rational function. The denominator cannot be zero:
\[
6 + t
eq 0 \implies t
eq -6
\]
So, the domain of \( G(t) \) is \( (-\infty, -6) \cup (-6, \infty) \)
Part 3: State the domain of its derivative \( G'(t) \)
The derivative \( G'(t) = \frac{-13}{(6 + t)^2} \) is also a rational function. The denominator \( (6 + t)^2 \) cannot be zero:
\[
(6 + t)^2
eq 0 \implies 6 + t
eq 0 \implies t
eq -6
\]
So, the domain of \( G'(t) \) is \( (-\infty, -6) \cup (-6, \infty) \)
Final Answers
- Derivative: \( \boldsymbol{G'(t) = \frac{-13}{(6 + t)^2}} \)
- Domain of \( G(t) \): \( \boldsymbol{(-\infty, -6) \cup (-6, \infty)} \)
- Domain of \( G'(t) \): \( \boldsymbol{(-\infty, -6) \cup (-6, \infty)} \)