To simplify the expression \( 4x(8 - x) \), you can distribute \( 4x \) to both terms in the parentheses:
\[ 4x(8) - 4x(x) \]
This results in:
\[ 32x - 4x^2 \]
So, the simplified expression is:
\[ -4x^2 + 32x \]
9 answers
To simplify the expression \( 4x(8 - x) \), you can distribute \( 4x \) to both terms in the parentheses:
\[ 4x(8) - 4x(x) \]
This results in:
\[ 32x - 4x^2 \]
So, the simplified expression is:
\[ -4x^2 + 32x \]
To multiply the monomial \( 3x^3 \) by the polynomial \( (3x + 4) \), you will distribute \( 3x^3 \) to each term in the polynomial.
Multiply \( 3x^3 \) by \( 3x \): \[ 3x^3 \cdot 3x = 9x^{4} \]
Multiply \( 3x^3 \) by \( 4 \): \[ 3x^3 \cdot 4 = 12x^{3} \]
Now, combine these results:
\[ 9x^{4} + 12x^{3} \]
So, the result of multiplying the monomial by the polynomial is:
\[ 9x^4 + 12x^3 \]
To multiply the monomial \(-5y^4\) by the polynomial \( (6y^2 + 7y - 2) \), you will distribute \(-5y^4\) to each term in the polynomial.
Multiply \(-5y^4\) by \(6y^2\): \[ -5y^4 \cdot 6y^2 = -30y^{6} \]
Multiply \(-5y^4\) by \(7y\): \[ -5y^4 \cdot 7y = -35y^{5} \]
Multiply \(-5y^4\) by \(-2\): \[ -5y^4 \cdot -2 = 10y^{4} \]
Now, combine these results:
\[ -30y^6 - 35y^5 + 10y^4 \]
So, the result of multiplying the monomial by the polynomial is:
\[ -30y^6 - 35y^5 + 10y^4 \]
To multiply the two binomials \( (5x - 3)(3x + 2) \), you can use the distributive property (often called the FOIL method for binomials):
First: Multiply the first terms in each binomial: \[ 5x \cdot 3x = 15x^2 \]
Outer: Multiply the outer terms: \[ 5x \cdot 2 = 10x \]
Inner: Multiply the inner terms: \[ -3 \cdot 3x = -9x \]
Last: Multiply the last terms: \[ -3 \cdot 2 = -6 \]
Now, combine all these results: \[ 15x^2 + 10x - 9x - 6 \]
Combine like terms (\(10x - 9x\)): \[ 15x^2 + (10x - 9x) - 6 = 15x^2 + x - 6 \]
So, the result of multiplying the binomials is:
\[ \boxed{15x^2 + x - 6} \]
To find the perimeter, we first need to simplify the given expression. The expression is:
\[ 5s^2 + 8s - 12 + 18s^2 - 3s + 10 + s - 3 \]
We will combine like terms:
Combine the \(s^2\) terms: \[ 5s^2 + 18s^2 = 23s^2 \]
Combine the \(s\) terms: \[ 8s - 3s + s = 6s \]
Combine the constant terms: \[ -12 + 10 - 3 = -5 \]
Now, putting it all together, we get:
\[ 23s^2 + 6s - 5 \]
If you are referring to "perimeter" in the context of a shape defined by the polynomial, the polynomial may not directly represent a geometric shape with a perimeter. Typically, perimeter Calculation applies to polygons or figures.
However, if you are looking for the expression for the perimeter as a function of \(s\), the result is:
\[ \boxed{23s^2 + 6s - 5} \]
If you meant something else by "perimeter," please clarify!