2(g^2+8g+16)=0
Distribute the 2 first
I did
Wait y The original equation is 2g^2+16g+32=0
oh, are you solving for g, right?
Yea
since its all equal to 0 you can use the quadratic formula, do you know that?
Uh...
\(\large\frac{-b\pm\sqrt{b^2-4ac}}{2a}\) is that equation familiar?
Yes it is but I dunno if it would help
Its the best way to solve for it imo, or you could graph
Ok...
I'll show you both ways just in case \(\large\frac{-b\pm\sqrt{b^2-4ac}}{2a}\); a=2, b=16, c=32 \(\large\frac{-(16)+\sqrt{(16)^2-4\cdot2\cdot32}}{2\cdot2}\)=\(\large\frac{-16+\sqrt{256-256}}{4}\)= \(\large\frac{-16+\color{red}{\sqrt{0}}}{4}\)=\(\frac{-16}{4}\)=-4 and \(\large\frac{-(16)-\sqrt{(16)^2-4\cdot2\cdot32}}{2\cdot2}\)=\(\large\frac{-16-\sqrt{256-256}}{4}\)=\(\large\frac{-16+\color{red}{\sqrt{0}}}{4}\)=\(\frac{-16}{4}\)=-4
Graph
It shouldn’t be a parabola
\(2g^2+16g+32=0\) is in parabolic form o.O \(ax^2+bx+c\) = parabolic form
I’m supposed to mind what numbers are x to equal 0
@dude well done my guy. And @silvernight269 quadratic formulas are for quadratic equations, which tend to form a parabola when they are graphed. Quadratic equations always have this base form, where a, b, and c are all numbers: \(ax^2 + bx+c=0\)
just factor my guy
Oh ur right. Forgot🤦🏻♂️
g^2+8+16 is just (g+4)^2
8g*
@silvernight269 let us know if you have more questions about the process :) dude did an excellent job guiding you here.
Ok
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