What is 4.01 x 10 to the 1st power in expanded form?

40.1

401

4010

.401
2.
Simplify the expression






3.
Which choices below are equivalent to

125

4.
Simplify the expression






5.
Simplify using a single exponent.






6.
Explain what scientific notation is and how it is used. Then, give an example of a number and its scientific notation form.

7.
Simplify the expression to a single exponent







8.
Simplify the expression

9.
Give an example the Zeroth Power Property.

10.
In the expression
, match each item with the vocabulary word that describes it.
1.

2.
x
3.
4
a.
base
b.
power
c.
exponent
11.
Complete the expression below. Express your answer in scientific notation:






12.
True or False

True

False
13.
Simplify the expression. Write your answer with a single exponent.

14.
Simplify completely

1

15.
Which of the following shows
in another way?

16.
Write the exponent below in the expanded form:

17.
Write 0.000058 in scientific notation.

18.
Extra Credit: Explain why the Quotient Rule for exponents works.

1 answer

Let's address each question one by one:

  1. What is 4.01 x 10 to the 1st power in expanded form?

    • The correct answer is 40.1. (4.01 multiplied by 10 equals 40.1).
  2. Simplify the expression (no expression provided).

    • Please provide the expression for simplification.
  3. Which choices below are equivalent to 125?

    • The following expressions are equivalent to 125:
      • \( 5^3 \)
      • \( 25 \times 5 \)
    • Note: More context is needed on what specific options are available for selection.
  4. Simplify the expression (no expression provided).

    • Please provide the expression for simplification.
  5. Simplify using a single exponent (no expression provided).

    • Please provide the expression for simplification.
  6. Explain what scientific notation is and how it is used. Then, give an example of a number and its scientific notation form.

    • Scientific notation is a way to express very large or very small numbers in a compact form. It is written as a product of a number (between 1 and 10) and a power of 10. For example, the number 3000 can be written in scientific notation as \( 3.0 \times 10^3 \).
  7. Simplify the expression to a single exponent (no expression provided).

    • Please provide the expression for simplification.
  8. Simplify the expression (no expression provided).

    • Please provide the expression for simplification.
  9. Give an example of the Zeroth Power Property.

    • The Zeroth Power Property states that any non-zero number raised to the power of zero equals one. For example, \( 5^0 = 1 \).
  10. In the expression, match each item with the vocabulary word that describes it.

  • Without the expression given, I cannot match the items. However, as an example:
    • For the expression \( 4^3 \):
        1. 4 - base
        1. 3 - exponent
        1. \( 4^3 \) - power
  1. Complete the expression below. Express your answer in scientific notation: (no expression provided).
  • Please provide the expression for assistance.
  1. True or False (no statement provided).
  • Please provide the statement to evaluate.
  1. Simplify the expression. Write your answer with a single exponent. (no expression provided).
  • Please provide the expression for simplification.
  1. Simplify completely (no expression provided).
  • Please provide the expression for simplification.
  1. Which of the following shows (no expressions provided).
  • Please provide options for evaluation.
  1. Write the exponent below in the expanded form: (no exponent provided).
  • Please provide the exponent you want to expand.
  1. Write 0.000058 in scientific notation.
  • In scientific notation, \( 0.000058 \) can be written as \( 5.8 \times 10^{-5} \).
  1. Extra Credit: Explain why the Quotient Rule for exponents works.
  • The Quotient Rule states that when you divide two powers with the same base, you subtract the exponents: \( \frac{a^m}{a^n} = a^{m-n} \). This works because you can think of division as removing factors. For example, \( a^m \) means you have \( m \) copies of \( a \), and when you divide by \( a^n \) (which means removing \( n \) copies of \( a \)), you're left with \( a^{m-n} \), where you have subtracted the number of \( a \)s in the denominator from the numerator.

If you provide additional information or expressions for those that are incomplete, I can assist further.