O. Prove that the following expressions are frue, by using the distribultre propeny a. \( m \times(n+p)=(m \times n)+(m \times p) \) b. \( d=(z+h)=(d, z)+(d+h) \) c. \( r \times(s+t)=(r \times s)+(r \times t) \) Use zero as the idenify element of addifion and
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Let's have some fun with distribution! First off, the distributive property tells us that when you multiply a number by a sum, you can distribute that multiplication across each term of the sum. So for \( m \times(n+p) \), you're essentially saying, "Hey, I can do \( m \times n \) and \( m \times p \) separately and then add them." And voila! That proves \( m \times(n+p)=(m \times n)+(m \times p) \) is true. Now, let's take a look at \( r \times(s+t) \). Using the same logic, you'd get \( r \times s \) and \( r \times t \). When you put those together, you're confirming that distribution works just as beautifully here too! So, \( r \times(s+t)=(r \times s)+(r \times t) \) holds true as well. However, while diving into \( d=(z+h)=(d, z)+(d+h) \), it looks a bit tricky since we typically don't write equations that way. It seems like we’re mixing variables and expressions, which may lead to some misunderstanding! The key focus should remain consistent on how we express the relationships instead of mixing formats wildly. So, let's keep this math adventure thrilling and accurate! Always remember the power of distribution—you got this!