If y=e3xsin(2x)y = e^{3x} \sin(2x)y=e3xsin(2x), what is dydx\frac{dy}{dx}dxdy?e3x(3sin2x+2cos2x)e^{3x}(3\sin 2x + 2\cos 2x)e3x(3sin2x+2cos2x)AnswerBe3x(sin2x+cos2x)e^{3x}(\sin 2x + \cos 2x)e3x(sin2x+cos2x)Ce3x(3sin2x−2cos2x)e^{3x}(3\sin 2x - 2\cos 2x)e3x(3sin2x−2cos2x)De3x(2sin2x+3cos2x)e^{3x}(2\sin 2x + 3\cos 2x)e3x(2sin2x+3cos2x)Answere3x(3sin2x+2cos2x)e^{3x}(3\sin 2x + 2\cos 2x)e3x(3sin2x+2cos2x)Using the product rule dydx=udvdx+vdudx\frac{dy}{dx} = u\frac{dv}{dx} + v\frac{du}{dx}dxdy=udxdv+vdxdu on y=e3xsin(2x)y = e^{3x}\sin(2x)y=e3xsin(2x) gives e3x⋅2cos(2x)+sin(2x)⋅3e3xe^{3x} \cdot 2\cos(2x) + \sin(2x) \cdot 3e^{3x}e3x⋅2cos(2x)+sin(2x)⋅3e3x. Factoring out e3xe^{3x}e3x results in e3x(3sin2x+2cos2x)e^{3x}(3\sin 2x + 2\cos 2x)e3x(3sin2x+2cos2x).Step-by-Step Solution1Identify the function components for the product ruleLet u=e3xu = e^{3x}u=e3x and v=sin(2x)v = \sin(2x)v=sin(2x).The function yyy is a product of two differentiable functions u(x)u(x)u(x) and v(x)v(x)v(x).2Differentiate each component using the chain ruledudx=3e3x\frac{du}{dx} = 3e^{3x}dxdu=3e3x and dvdx=2cos(2x)\frac{dv}{dx} = 2\cos(2x)dxdv=2cos(2x).Applying the chain rule gives ddx(e3x)=3e3x\frac{d}{dx}(e^{3x}) = 3e^{3x}dxd(e3x)=3e3x and ddx(sin2x)=2cos2x\frac{d}{dx}(\sin 2x) = 2\cos 2xdxd(sin2x)=2cos2x.3Apply the product rule formula dydx=udvdx+vdudx\frac{dy}{dx} = u \frac{dv}{dx} + v \frac{du}{dx}dxdy=udxdv+vdxdudydx=e3x(2cos2x)+sin(2x)(3e3x)=e3x(3sin2x+2cos2x)\frac{dy}{dx} = e^{3x}(2\cos 2x) + \sin(2x)(3e^{3x}) = e^{3x}(3\sin 2x + 2\cos 2x)dxdy=e3x(2cos2x)+sin(2x)(3e3x)=e3x(3sin2x+2cos2x).Combining the products and factoring out the common exponential factor e3xe^{3x}e3x yields the final derivative.Key ConceptDifferentiation of Transcendental Functions using Product Rule and Chain RuleCommon MistakesEstimated Time:1m 30s