Math, asked by Anonymous, 2 months ago

\sf Differentiate\:following \:function \: w.r.t.\: x
\sf {e}^{{x}^{2}{sin}^{2}+ {cos}^{2}x}
\sf Answer\:is \:  {e}^{{x}^{2}{sin}^{2}+ {cos}^{2}x} (({x}^{2}-1)sin 2x + 2x {sin}^{2}x) \sf Content Quality Answer Required

Answers

Answered by Anonymous
11

Question :-

</p><p>\bigstar\sf{\:Differentiate\:following \:function \: w.r.t.\:x}

</p><p>\mapsto\orange{\sf{\:{e}^{({x}^{2}{sin}^{2} x+ {cos}^{2} x)}}}

\Large{\underline{\underline{\mathfrak{\orange{\bf{Solution}}}}}}

We Know,

\mapsto\boxed{\boxed{\pink{\sf{\:\dfrac{de^y}{dx}\:=\:e^y\dfrac{dy}{dx}}}}}

\mapsto\boxed{\boxed{\pink{\sf{\:\dfrac{d\sin x}{dx}\:=\:\cos x}}}}

</p><p>\mapsto\boxed{\boxed{\pink{\sf{\:\dfrac{d\cos x}{dx}\:=\:-\sin x}}}}

\mapsto\boxed{\boxed{\pink{\sf{\:\dfrac{dx^n}{dx}\:=\:nx^{n-1}}}}}

</p><p>\mapsto\pink{\sf{\:2\sin x \cos x \:=\:\sin 2x}}

_____________________

\Large{\underline{\underline{\mathfrak{\pink{\bf{Explanation}}}}}}

\mapsto\orange{\sf{\:\dfrac{d{e}^{(x^2\sin^2 x + \cos^2 x)}}{dx}}}

</p><p>\mapsto\sf{\:({e}^{x^2\sin^2 x+\cos^2 x})\:[\dfrac{d(x^2\sin^2 x + \cos^2 x)}{dx}]}

\mapsto\sf{\:({e}^{x^2\sin^2 x+\cos^2 x})[\dfrac{d(x^2\sin^2 x)}{dx}\:+\:\dfrac{d(\cos^2 x)}{dx}]}

</p><p>\:\:\:\:\green{\sf{\:[\dfrac{duv}{dx}\:=\:u\dfrac{dv}{dx}+v\dfrac{du}{dx}]}}

\mapsto\sf{\:({e}^{x^2\sin^2 x+\cos^2 x})\:[x^2\dfrac{d(\sin^2 x)}{dx}+\sin^2 x\:\dfrac{dx^2}{dx}\:+\:2\cos x\times\dfrac{d(\cos x)}{dx}]}

\mapsto\sf{\:({e}^{x^2\sin^2 x+\cos^2 x})[x^2\times2\sin x\times\dfrac{d(\sin x)}{dx}+2x\sin^2 x\:+\:2\cos x\times(-\sin x)]}

\mapsto\sf{\:({e}^{x^2\sin^2 x+\cos^2 x})[x^2\times2\sin x\:\cos x\:+\:2x\:\sin^2 x\:+\:2\cos x\:(-\sin x)]}

\:\:\:\:\:\green{\sf{\:(2\sin x \cos x \:=\:\sin 2x)}}

\mapsto\sf{\:({e}^{x^2\sin^2 x+\cos^2 x})[x^2\:\sin 2x\:+\:2x\:\sin^2 x\:\:-\:\sin 2x]}

\mapsto\sf{\:({e}^{x^2\sin^2 x+\cos^2 x})[\sin 2x\:(x^2-1)\:+\:2x\:\sin^2 x]}

Hence proved !!

Answered by negigungun123
0

hope it helps you..........✌️✌️

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