When we have an expression raised to a power that, in turn, is raised (within parentheses) to another power, we can multiply the exponents and raise the base number to the result of this multiplication.
When we have an expression raised to a power that, in turn, is raised (within parentheses) to another power, we can multiply the exponents and raise the base number to the result of this multiplication.
This property is also concerning algebraic expressions.
Insert the corresponding expression:
\( \left(10^3\right)^3= \)
We can see that the exponent applies to the entire expression .
therefore, we can multiply both exponents and raise the base to the result of the multiplication.
We will obtain:
If we were presented with an exercise in which there is a certain power over a term that already has another power, we will multiply the powers that have equal bases.
Let's start with an easy one:
We'll see that there is a subtraction in the exponents of and that, first, we must deal with it.
We'll do this and obtain:
Now we can apply the power of a power property and multiply the exponents, we will obtain:
Good. Let's move on to a more complicated example:
Recommendation:
Before applying the power located outside the parentheses to each of the terms separately, first, it is advisable to carefully observe the exercise.
Upon observing it, you will realize that you can reduce or subtract exponents from the fractions themselves, before touching the exponent located outside the parentheses.
We will subtract the exponents of the corresponding bases (we will reduce) and obtain:
Now we can apply the exponent to each of the terms separately (do not forget about the coefficients) and we will get:
We can try to find a common term to better organize the exercise and we will obtain:
Perfect! Now, let's move on to a complex and slightly different example:
Power of a power advanced examples:
Don't worry, even if there are mathematical operations among the exponents, the properties do not change.
Let's start with the first expression which is a bit more complex. We learned that, when we have a power of a power we multiply the exponents.
We will multiply the entire exponent that is inside the parentheses by the entire exponent located outside the parentheses. We will do the same with the other term and we will obtain:
We will multiply the exponents of the first expression and we will obtain:
Now let's remember that, if we have a multiplication operation between equal bases we can add the exponents.
We will do this and we will obtain:
We simplify terms in the exponent and it will give us:
Simplify the following expression:
To simplify the expression, first apply the power of a product property, which allows us to raise each of the factors inside the parenthesis to the indicated power, then apply the power of a power property. We obtain:
Finally, apply the properties of products and quotients of powers with the same base:
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Insert the corresponding expression:
\( \left(12^8\right)^4= \)
Insert the corresponding expression:
\( \left(16^6\right)^7= \)
Insert the corresponding expression:
\( \left(2^7\right)^5= \)
What is a power of a power?
A power of a power is an expression in which we raise a power to another power.
What is a power of a power and example?
A power of a power is a power in which the base is also a power, for example:
How do you calculate a power of a power?
To solve a power of a power, we must multiply the exponents, and the result of the multiplication is placed as the exponent on the initial base.
Assignment
Solution
Answer
Insert the corresponding expression:
\( \left(2^2\right)^3= \)
Insert the corresponding expression:
\( \left(3^2\right)^4= \)
Insert the corresponding expression:
\( \left(4^5\right)^2= \)
Assignment
Solution
Answer
Assignment
Solution
We will use the formula
Answer
Insert the corresponding expression:
\( \)\( \left(6^2\right)^7= \)
Insert the corresponding expression:
\( \left(7^8\right)^9= \)
Insert the corresponding expression:
\( \left(8^5\right)^{10}= \)
Assignment
Solution
We will use the formula
Answer
Assignment
Solution
We will use the formula
Answer
\( (3^5)^4= \)
\( (6^2)^{13}= \)
Insert the corresponding expression:
\( \left(\right.\left(10\times2\right)^7)^3= \)
Insert the corresponding expression:
To simplify the expression , we'll apply the power of a power rule for exponents.
Now, let's work through each step:
Step 1: The expression given is .
Step 2: We will use the power of a power rule: .
Step 3: Multiply the exponents: .
Thus, the expression simplifies to .
The correct simplified form of the expression is , which corresponds to choice 2.
Alternative choices:
I am confident in the correctness of this solution.
To solve the exercise we use the power property:
We use the property with our exercise and solve:
Insert the corresponding expression:
To solve the expression , we will use the power of a power rule for exponents. This rule states that when you raise a power to another power, you multiply the exponents. Here are the steps:
Therefore, the simplified expression is .
Checking against the answer choices, we find:
1. is given as choice 1.
2. Other choices do not match the simplified expression.
Choice 1 is correct because it accurately reflects the application of exponent rules.
Consequently, we conclude that the correct solution is .
Insert the corresponding expression:
To solve this problem, let's carefully follow these steps:
Now, let's break this down:
Step 1: The expression given is . Here, the base is 4, the inner exponent is 5, and the outer exponent is 2.
Step 2: We apply the power of a power rule for exponents, which states that .
Using the rule, we have:
This means the expression can be simplified to .
Step 3: From the answer choices provided, we need to select the one corresponding to :
Therefore, the solution to the problem is , which corresponds to choice 3.
Insert the corresponding expression:
To solve this problem, we'll follow these steps:
Let's work through each step:
Step 1: The given expression is . Here, the base is , and we have two exponents: in the inner expression and outside.
Step 2: We'll use the power of a power rule for exponents, which states . This means we will multiply the exponents and .
Step 3: Calculating, we multiply the exponents:
Therefore, the expression simplifies to .
Now, let's verify with the given answer choices:
Thus, the correct choice is Choice 3: .
I am confident in the correctness of this solution as it directly applies well-established exponent rules.