To solve this equation, we can make a substitution by letting (Y = (X-4)^2). Then the equation becomes:
(Y^2 + 2Y = 8)
Now we have a quadratic equation in terms of Y. We can rearrange it to get:
(Y^2 + 2Y - 8 = 0)
Now we can factor this quadratic equation to get:
((Y + 4)(Y - 2) = 0)
Setting each factor to zero gives:
(Y + 4 = 0) or (Y - 2 = 0)
(Y = -4) or (Y = 2)
Now we substitute back our original variable equation to solve for X:
Case 1: If (Y = -4), then ((X-4)^2 = -4)
(X - 4 = \pm 2i)
(X = 4 \pm 2i)
Case 2: If (Y = 2), then ((X-4)^2 = 2)
(X - 4 = \pm \sqrt{2})
(X = 4 \pm \sqrt{2})
Therefore, the solutions to the equation are:
[X = 4 \pm 2i \text{ or } X = 4 \pm \sqrt{2}]
To solve this equation, we can make a substitution by letting (Y = (X-4)^2). Then the equation becomes:
(Y^2 + 2Y = 8)
Now we have a quadratic equation in terms of Y. We can rearrange it to get:
(Y^2 + 2Y - 8 = 0)
Now we can factor this quadratic equation to get:
((Y + 4)(Y - 2) = 0)
Setting each factor to zero gives:
(Y + 4 = 0) or (Y - 2 = 0)
(Y = -4) or (Y = 2)
Now we substitute back our original variable equation to solve for X:
Case 1: If (Y = -4), then ((X-4)^2 = -4)
(X - 4 = \pm 2i)
(X = 4 \pm 2i)
Case 2: If (Y = 2), then ((X-4)^2 = 2)
(X - 4 = \pm \sqrt{2})
(X = 4 \pm \sqrt{2})
Therefore, the solutions to the equation are:
[X = 4 \pm 2i \text{ or } X = 4 \pm \sqrt{2}]