Question
and
.
(a) Solve
. What point is on the graph of
?
(b) Solve
. What point is on the graph of
?
© Solve
. Do the graphs of
and
intersect? If so, where?
(d) Solve
.
(e) Solve
.
(a) The solution set for
is {
.
(Type an integer or a simplified fraction.)
The point where
is
. (Type an ordered pair.)
(b) The solution set for
is { }.
(Type an integer or a simplified fraction.)
The point where
is
. (Type an ordered pair.)
© The solution set for
is
.
(Type an integer or a simplified fraction.)
Select the correct choice below and, if necessary, fill in the answer box to complete your choice.
A. Yes, the graphs do intersect at
.
(Type an ordered pair.)
B. No, the graphs do not intersect each other.
(a) Solve
(b) Solve
© Solve
(d) Solve
(e) Solve
(a) The solution set for
(Type an integer or a simplified fraction.)
The point where
(b) The solution set for
(Type an integer or a simplified fraction.)
The point where
© The solution set for
(Type an integer or a simplified fraction.)
Select the correct choice below and, if necessary, fill in the answer box to complete your choice.
A. Yes, the graphs do intersect at
(Type an ordered pair.)
B. No, the graphs do not intersect each other.
Ask by Murray Lindsey. in the United States
Jan 26,2025
Upstudy AI Solution
Tutor-Verified Answer
Answer
(a)
- Solution Set:
- Point:
(b)
- Solution Set:
- Point:
©
- Solution Set:
- Conclusion:
A. Yes, the graphs intersect at.
Solution

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Bonus Knowledge
To solve
, we set up the equation
. Rewriting this in exponential form, we have
, which simplifies to
. Therefore,
. The point on the graph of
is
.
To solve
, we use a similar approach:
leads to
. Solving this gives
or
. The point on the graph of
is
.
For
, we set up the equation
. Since the logs are equal, we can equate their arguments:
. Solving this gives
or
. The solution set is
. Yes, the graphs intersect at the point
.
Next, for
, we need to find
. Combining the logs leads to
, giving us
. Expanding and simplifying this yields a quadratic equation that can be solved for
.
Lastly, for
, we have
. This can also be rewritten as
, leading to
. Cross-multiplying and simplifying gives another solvable equation.
That’s a whirlwind tour of logarithmic equations, turning them into quadratic adventures! Just remember: logarithmic functions can hide their secrets behind their logarithmic masks, but with a little algebraic magic, the truth comes out!