The expression (2ab) times (a) can be simplified by multiplying the coefficients and the variables together. This yields (2a^2b). Thus, (2ab \times a = 2a^2b).
the answer to factorising (a x a3 + 2ab + b2) would be (a4+2ab+b2)
2ab-6bc = -4
8ab/4c^7=2ab/c^7
The GCF is 2ab.
No, ab squared is not the same as 2ab. ab squared (ab^2) means multiplying ab by itself, resulting in a^2 * b^2. On the other hand, 2ab means multiplying 2 by a and then by b, resulting in 2ab. These two expressions are not equivalent because ab^2 involves squaring the variable b, while 2ab does not involve squaring any variables.
the answer to factorising (a x a3 + 2ab + b2) would be (a4+2ab+b2)
2ab = 2*(-2)*7 = -28
2ab-6bc = -4
2ab-2 = 0
2ab
8ab/4c^7=2ab/c^7
a^2 + b^2 + 2ab = (a + b)^2
The GCF is 2ab.
(a2+2b2-2ab)(a2+2b2+2ab)
No, ab squared is not the same as 2ab. ab squared (ab^2) means multiplying ab by itself, resulting in a^2 * b^2. On the other hand, 2ab means multiplying 2 by a and then by b, resulting in 2ab. These two expressions are not equivalent because ab^2 involves squaring the variable b, while 2ab does not involve squaring any variables.
2ab - 3b2 - 3b + 2a does not have a solution, as it is not an equation.
Well, isn't that just a happy little math problem we have here? To factorise 4ab - 6ab, we can first factor out the common factor, which is 2ab. So, we have 2ab(2 - 3) or simply 2ab(-1). And just like that, you've simplified the expression beautifully!