3p(p-1)
2006-10-24 13:51:39
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answer #1
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answered by venomfx 4
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First evaluate x^3 - y^3 This components into (x - y)(x^2 + xy + y^2) putting p + q = x and p - q = y, we've (p + q - (p - q))((p + q)^2 + (p + q)(p - q) + (p - q)^2) (p + q - p + q)(p^2 + 2pq + q^2 + p^2 - q^2 + p^2 - 2pq + q^2) (2q)(3p^2 + q^2) You provide up right here in case you're factoring over the integers or the reals. in case you're factoring over the complexes, considering 3 = (sqrt(3))^2, you have (2q)(sqrt(3)p + qi)(sqrt(3)p - qi) the place i = sqrt(-a million). in spite of this, you are able to multiply out first: (p + q)^3 = p^3 + 3p^2q + 3pq^2 + q^3 (p - q)^3 = p^3 - 3p^2q + 3pq^2 - q^3 so (p + q)^3 - (p - q)^3 = 6p^2q + q^3 = (2q)(3p^2 + q^2), and so on.
2016-11-25 19:07:39
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answer #2
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answered by Anonymous
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Here's your original expression:
3p² - 3p
Now factor out "3p":
3p(p - 1)
2006-10-24 13:55:57
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answer #3
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answered by عبد الله (ドラゴン) 5
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take a 3p out
=
3p(p-1)
2006-10-24 13:52:12
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answer #4
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answered by JV 3
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3 and p go into both
So take them outside the bracket (factorise)
3p(p - 1)
2006-10-24 13:52:11
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answer #5
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answered by Benny B 2
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=3p(p-1)
2006-10-24 13:53:31
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answer #6
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answered by Anonymous
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3p(p-1)
2006-10-24 13:51:55
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answer #7
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answered by Anonymous
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-b-4ac
(must equal perfect square)
3-4(3)(0)
3-0
=3
Not a perfect square therefore not factorable.
2006-10-24 13:54:12
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answer #8
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answered by Anonymous
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