In the sentence 3 + 3 = 6, the threes are the addends.
You add two addends to get a sum. For example, in 3 + 5 = 8, 3 and 5 are addends, and 8 is the sum.
In 1 + 2 = 31 and 2 are the addends and 3 is the sum of the two addends.
in the equation 3+4=7, 3 and 4 are the addends. 7 is the sum.
The sum could be anything, but it would be a positive number if the two addends are positive.
This is possible because the order of the addends does not matter. For example, 3+8 is the same as 8+3. No matter how you list the addends, the sum will always be the same.
You add two addends to get a sum. For example, in 3 + 5 = 8, 3 and 5 are addends, and 8 is the sum.
In 1 + 2 = 31 and 2 are the addends and 3 is the sum of the two addends.
In 1 + 2 = 31 and 2 are the addends and 3 is the sum of the two addends.
In 1 + 2 = 31 and 2 are the addends and 3 is the sum of the two addends.
in the equation 3+4=7, 3 and 4 are the addends. 7 is the sum.
The numbers being added together are called addends. The answer is called the sum. 4+2=6 Four and two are addends and six is the sum.
The sum could be anything, but it would be a positive number if the two addends are positive.
This is possible because the order of the addends does not matter. For example, 3+8 is the same as 8+3. No matter how you list the addends, the sum will always be the same.
yes.
To demonstrate the distributive property using the expression 3 × 6, you can break down 6 into two addends, like 3 and 3. This can be expressed as 3 × (3 + 3). According to the distributive property, this equals 3 × 3 + 3 × 3, which simplifies to 9 + 9, resulting in 18. Thus, 3 × 6 = 18.
False. Addition is both associative (meaning you can lump the addends together as much as you like) and commutative (meaning you can change the order of the addends as much as you like.) 2 + 3 + 5 = 2 + 5 + 3 = (2 + 3) + 5
sum and addends