You can rewrite this as (a + bi)^c * (a + bi)^di. It's much easier to calculate if we rewrite a + bi in exponential form. That's R*e^T, where R is the radius or modulus, sqrt(a^2 + b^2), and T (for theta) is the angle or argument, arctan(b/a). Then recall that e^iT = cos(T) - i*sin(T). To get rid of an R^i term, rewrite R as e^ln(R), and use the trig expansion. The end result is R^c * e^-dT * [cos(d*ln(R) + cT) + i*sin(d*ln(R) + cT)], with R and T defined above.
2006-08-23 03:52:15
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answer #1
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answered by DavidK93 7
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The way this question is worded is confusing. By the way I interpret it, the solution would seem to be itself. Like asking what is the value of 3? The value of 3 is 3. So therefore the value of (a + bi)^(c + di) would equal (a + bi)^(c + di), unless you're given any additional information and asked to solve for a specific variable.
The only other thing I can think of doing is changing the i's to sqrt(-1)'s, as sqrt(-1) = i. Beyond that, don't know what to tell you.
2006-08-23 10:05:19
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answer #2
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answered by JoeSchmo5819 4
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No solution
(a + bi)Ë(c + di) requires numerical values
2006-08-23 10:10:07
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answer #3
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answered by SAMUEL D 7
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O_O
I don't think there's a general form for it, so unless you give values for a, b, c, and d, I doubt it's possible.
2006-08-23 10:02:32
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answer #4
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answered by knivetsil 2
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(a+bi)^(c+di) = e^{ (c+di) ln(a+bi) }
= e^{ (c+di) ln[ r(cosP+i sinP)] }
= e^{ (c+di) ln[ re^(iP) ] }
= e^{ (c ln r - dP) + i( d ln r + cP ) }
There's a lot more info at the page I've linked to below. Hope that helps!
2006-08-23 10:24:39
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answer #5
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answered by Jay H 5
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(a + bi)^(c + di)
((a + bi)^(c)) * ((a + bi)^(di))
Thats all i can tell you
2006-08-23 17:10:17
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answer #6
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answered by Sherman81 6
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KEVIN, R U JOKING?
I MEAN REALLY!!! HOW WOULD EXPECT US TO FIND A VALUE? IT'S NOT EVEN AN EQUATION!!!!
CAN ANYBODY SHOW ME HOW , IF ITS POSSIBLE,....THAT I GOTTA SEE!!!!
2006-08-23 09:54:53
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answer #7
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answered by David F 2
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