To simplify this equation, we can use the property of exponents that states when multiplying two numbers with the same base, we can add the exponents:
2^(sin 3x) * 2^(sin 5x) = 2^(sin 3x + sin 5x)
Next, we can simplify the expression sin 3x + sin 5x by using the trigonometric identity sin(a) + sin(b) = 2sin((a+b)/2)cos((a-b)/2):
sin 3x + sin 5x = 2sin((3x+5x)/2)cos((5x-3x)/2) = 2sin(4x)cos(x).
Therefore, the original equation simplifies to:
2^(sin 3x) * 2^(sin 5x) = 2^(sin 4x)
becomes
2^(sin 3x + sin 5x) = 2^(sin 4x)
which simplifies to
2^(2sin(4x)cos(x)) = 2^(sin 4x).
Since the bases are the same, we can set the exponents equal to each other:
2sin(4x)cos(x) = sin 4x.
However, this equation cannot be simplified further without additional information, so the final simplified equation is:
To simplify this equation, we can use the property of exponents that states when multiplying two numbers with the same base, we can add the exponents:
2^(sin 3x) * 2^(sin 5x) = 2^(sin 3x + sin 5x)
Next, we can simplify the expression sin 3x + sin 5x by using the trigonometric identity sin(a) + sin(b) = 2sin((a+b)/2)cos((a-b)/2):
sin 3x + sin 5x = 2sin((3x+5x)/2)cos((5x-3x)/2) = 2sin(4x)cos(x).
Therefore, the original equation simplifies to:
2^(sin 3x) * 2^(sin 5x) = 2^(sin 4x)
becomes
2^(sin 3x + sin 5x) = 2^(sin 4x)
which simplifies to
2^(2sin(4x)cos(x)) = 2^(sin 4x).
Since the bases are the same, we can set the exponents equal to each other:
2sin(4x)cos(x) = sin 4x.
However, this equation cannot be simplified further without additional information, so the final simplified equation is:
2sin(4x)cos(x) = sin 4x.