∣4−31∣=
\( |4 - 3^1| = \)
\( |3^3 - 5| = \)
\( |5^2 - 24| = \)
\( |6^2 - 10| = \)
\( \left|\frac{9}{3} - 4\right| = \)
First, calculate :
.
Then, subtract 3 from 4:
.
The absolute value of 1 is 1, so the expression evaluates to 1. Therefore, |4 - 3^1| = 1.
First, calculate . That is, .
Next, subtract 5 from 27: .
Finally, the absolute value of 22 is since it is already a positive number.
First, calculate . That is, .
Next, subtract 24 from 25: .
Finally, the absolute value of 1 is since it is already a positive number.
First, calculate . That is, .
Next, subtract 10 from 36: .
Finally, the absolute value of 26 is since it is already a positive number.
First, perform the division: .
Then, subtract 4 from 3:
.
The absolute value of -1 is 1, so the expression evaluates to 1. However, the absolute value takes the non-negative result, so we need to express: |3 - 4| = 1.
\( |3^2 - 7| = \)
\( |7 - 10| = \)
\( \left|2^3 - 5\right| = \)
\( \left|(9 - 3)^2\right| = \)
\( |5 - 3| = \)
The expression inside the absolute value is . Calculate :
.
Then, subtract 7 from 9:
.
The absolute value of 2 is 2, so the expression evaluates to 2. Therefore, |3^2 - 7| = 2.
The expression represents the absolute value of the difference between 7 and 10.
Calculate the difference: .
The absolute value of a negative number is its positive counterpart, so .
The expression represents the absolute value of the result of subtracting 5 from .
Calculate the power: .
Subtract the numbers: .
The absolute value of 3 is , so the answer is .
The expression represents the absolute value of the square of (9 - 3).
Calculate the difference: .
Then compute the square: .
The absolute value of is .
To solve the problem of finding the absolute value of , follow these steps:
Let's work through each step:
Step 1: Calculate . This gives us the result:
Step 2: Now apply the absolute value to this result:
Therefore, the solution to the problem is .
Evaluate the absolute value of the following expression:
\( \left|-7 + 3\right|= \)
Calculate the absolute value: \( \left| 2 - 5 \right| \)
\( |-7 + 3| = \)
\( |5 - 7| = \)
\( |5 - 9| = \)
Evaluate the absolute value of the following expression:
To solve this problem, we'll follow these steps:
Let’s perform the calculations:
First, simplify the expression . This is equivalent to subtracting 3 from -7:
Now, we find the absolute value of :
The absolute value of a negative number is its positive equivalent. Therefore, .
Thus, the absolute value of is .
Calculate the absolute value:
To solve this problem, we'll follow these steps:
Now, let's work through each step:
Step 1: Calculate .
Step 2: Determine the absolute value of .
Since the number is negative, the absolute value is calculated by changing its sign:
Therefore, the absolute value of is .
The correct choice is: (Choice 1).
To solve this problem, we'll follow these steps:
Now, let's work through each step in detail:
Step 1: We evaluate the expression inside the absolute value: .
Calculating this gives us:
Step 2: Apply the absolute value.
The absolute value of any number, , is its positive counterpart. Therefore, we calculate:
Conclusion: The absolute value of is .
To solve this problem, we'll follow these steps:
Now, let's work through each step:
Step 1: Calculate .
Step 2: The result from Step 1, , is negative.
Step 3: Apply the absolute value definition. Since the result is negative, we take the opposite of :
Therefore, the solution to the problem is .
To solve this problem, we will follow these steps:
Now, let's work through each step:
Step 1: Evaluate the expression .
- To find , we subtract 9 from 5, which gives us .
Step 2: Apply the absolute value.
- The absolute value of a number is its non-negative value. Since is negative, we take the opposite: .
Therefore, the absolute value of is .
\( |-8 + 3| = \)
To solve this problem, we will follow these steps:
Step 1: We start by evaluating the expression inside the absolute value, .
When we calculate , we perform the operation:
.
Step 2: Now that we have simplified the expression to , we apply the absolute value definition. The absolute value of is found using the rule for absolute values:
Since is less than zero, we use the definition: when .
Therefore, .
Thus, the solution to the problem is .