Answer: Yes When comparing two negative numbers, take the absolute value of each. Whichever absolute value is less is the greater of the two original numbers. ...OR If you look at them both on a number line, whichever is on the right of the other is the greater of the two.
A number such as the one you wrote doesn't have a "place-value"; the concept of "place-value" applies to each of the digits. The right-most digit has a place-value of 1, the second digit (from the right) has a place-value of 10, the third one has a place-value of 100 (10 squared), the next one has a place-value of 1000 (10 cubed), etc.
Yes, 0.8 is greater than 0.58. When comparing decimals, you can look at the place value of each digit after the decimal point. In this case, the 8 in 0.8 is in the tenths place, while the 8 in 0.58 is in the hundredths place. Since the tenths place is greater than the hundredths place, 0.8 is greater than 0.58.
To round a number to a certain place value, you look at the digit immediately to the right of that place value. If it is 5 or greater, you round up; if it is less than 5, you round down. For example, to round 3.785 to the nearest hundredth, you would look at the digit in the thousandths place (8), which is 5 or greater, so you round up to 3.79.
The squares can have sides equal to each factor that is common to both numbers.
This is when two perfect squares(ex.) [x squared minus 4] a question in which there are two perfect squares. you would find the square root of each. then it depends on what kind of math your doing.
35
Each has two binomial factors.
There are infinitely many, just like in base 10. In any base system, the number of perfect squares is the same. Take the natural (counting) numbers 1, 2, 3, .... Squaring each of these produces the perfect squares. As there are an infinite number of natural numbers, there are an infinite number of perfect squares. The first 10 perfect squares in base 5 are: 15, 45, 145, 315, 1005, 1215, 1445, 2245, 3115, 4005, ...
The factors of 36 are 1, 2, 3, 4, 6, 9, 12, 18, and 36. To determine which factors are perfect squares, we need to find the square root of each factor. The factors that have whole number square roots are perfect squares. In this case, the perfect squares among the factors of 36 are 1, 4, 9, and 36.
Each frame has a value of 30 in a perfect game.
The perfect squares less than 101 are: 1, 4, 9, 16, 25, 36, 49, 64, 81, and 100
Perfect squares are values that can be expressed as the square of an integer. Examples include 0, 1, 4, 9, 16, 25, and so on, where each number is the result of squaring integers (0, 1, 2, 3, 4, 5, etc.). In general, perfect squares take the form ( n^2 ) where ( n ) is any whole number.
To cut brownies into perfect squares, first let them cool completely. Then, use a sharp knife to make straight cuts, wiping the knife clean between each cut. You can also use a ruler to measure and ensure even square sizes.
The answer will depend on what c represents. Furthermore, there probably is no value of c such that each expression is a perfect square - you will need different values of c for different trinomials.The answer will depend on what c represents. Furthermore, there probably is no value of c such that each expression is a perfect square - you will need different values of c for different trinomials.The answer will depend on what c represents. Furthermore, there probably is no value of c such that each expression is a perfect square - you will need different values of c for different trinomials.The answer will depend on what c represents. Furthermore, there probably is no value of c such that each expression is a perfect square - you will need different values of c for different trinomials.
A modest person
The numbers up to 100 that can be expressed as perfect squares are 0, 1, 4, 9, 16, 25, 36, 49, 64, 81, and 100. These correspond to the squares of the integers 0 through 10. Each of these numbers can be obtained by multiplying an integer by itself.