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Penyelesaian - Derivative

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)-6acrcos(3x2)x3
\frac{d}{dx}[a]\times rc\times \sin{\left(\frac{3}{x^{2}} \right)}+a\times \frac{d}{dx}[r]\times c\times \sin{\left(\frac{3}{x^{2}} \right)}+ar\times \frac{d}{dx}[c]\times \sin{\left(\frac{3}{x^{2}} \right)}- \frac{6 a c r \cos{\left(\frac{3}{x^{2}} \right)}}{x^{3}}

Other Ways to Solve

Derivative

Penjelasan langkah demi langkah

1. Langkah 160: ringkaskan terbitan

19 additional steps

Expanding the derivative for multiplication.

ddx[arc×sin(3x2)]=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×ddx[sin(3x2)]

Expanding the derivative for multiplication.

ddx[arc×sin(3x2)]=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×ddx[sin(3x2)]

Multiplication can be grouped differently, but the result remains the same.

ddx[arc×sin(3x2)]=ddx[a×(rc×sin(3x2))]

Applying the product rule of derivatives.

ddx[a×(rc×sin(3x2))]=ddx[a]×(rc×sin(3x2))+a×ddx[rc×sin(3x2)]

Expanding the derivative for multiplication.

ddx[arc×sin(3x2)]=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×ddx[sin(3x2)]

Expanding the derivative for multiplication.

ddx[a]×(rc×sin(3x2))+a×ddx[rc×sin(3x2)]=ddx[a]×(rc×sin(3x2))+a(ddx[r]×c×sin(3x2)+r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)])

Multiplication can be grouped differently, but the result remains the same.

ddx[rc×sin(3x2)]=ddx[r×(c×sin(3x2))]

Applying the product rule of derivatives.

ddx[r×(c×sin(3x2))]=ddx[r]×(c×sin(3x2))+r×ddx[c×sin(3x2)]

Expanding the derivative for multiplication.

ddx[a]×(rc×sin(3x2))+a×ddx[rc×sin(3x2)]=ddx[a]×(rc×sin(3x2))+a(ddx[r]×c×sin(3x2)+r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)])

Applying the product rule of derivatives.

ddx[c×sin(3x2)]=ddx[c]×sin(3x2)+c×ddx[sin(3x2)]

Multiplication can be grouped differently, but the result remains the same.

ddx[r]×(c×sin(3x2))+r(ddx[c]×sin(3x2)+c×ddx[sin(3x2)])=ddx[r]×c×sin(3x2)+r(ddx[c]×sin(3x2)+c×ddx[sin(3x2)])

Multiplying a number by a sum or difference of two numbers can be done by multiplying each number individually and then adding or subtracting the results.

ddx[r]×c×sin(3x2)+r(ddx[c]×sin(3x2)+c×ddx[sin(3x2)])=ddx[r]×c×sin(3x2)+(r×(ddx[c]×sin(3x2))+r×(c×ddx[sin(3x2)]))

Multiplication can be grouped differently, but the result remains the same.

ddx[r]×c×sin(3x2)+(r×(ddx[c]×sin(3x2))+r×(c×ddx[sin(3x2)]))=ddx[r]×c×sin(3x2)+(r×ddx[c]×sin(3x2)+r×(c×ddx[sin(3x2)]))

Multiplication can be grouped differently, but the result remains the same.

ddx[r]×c×sin(3x2)+(r×ddx[c]×sin(3x2)+r×(c×ddx[sin(3x2)]))=ddx[r]×c×sin(3x2)+(r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)])

Addition can be grouped differently, but the result remains the same.

ddx[r]×c×sin(3x2)+(r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)])=ddx[r]×c×sin(3x2)+r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)]

Multiplication can be grouped differently, but the result remains the same.

ddx[a]×(rc×sin(3x2))+a(ddx[r]×c×sin(3x2)+r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)])=ddx[a]×rc×sin(3x2)+a(ddx[r]×c×sin(3x2)+r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)])

Multiplying a number by a sum or difference of two numbers can be done by multiplying each number individually and then adding or subtracting the results.

ddx[a]×rc×sin(3x2)+a(ddx[r]×c×sin(3x2)+r×ddx[c]×sin(3x2)+rc×ddx[sin(3x2)])=ddx[a]×rc×sin(3x2)+(a×(ddx[r]×c×sin(3x2))+a×(r×ddx[c]×sin(3x2))+a×(rc×ddx[sin(3x2)]))

Multiplication can be grouped differently, but the result remains the same.

ddx[a]×rc×sin(3x2)+(a×(ddx[r]×c×sin(3x2))+a×(r×ddx[c]×sin(3x2))+a×(rc×ddx[sin(3x2)]))=ddx[a]×rc×sin(3x2)+(a×ddx[r]×c×sin(3x2)+a×(r×ddx[c]×sin(3x2))+a×(rc×ddx[sin(3x2)]))

Multiplication can be grouped differently, but the result remains the same.

ddx[a]×rc×sin(3x2)+(a×ddx[r]×c×sin(3x2)+a×(r×ddx[c]×sin(3x2))+a×(rc×ddx[sin(3x2)]))=ddx[a]×rc×sin(3x2)+(a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+a×(rc×ddx[sin(3x2)]))

Multiplication can be grouped differently, but the result remains the same.

ddx[a]×rc×sin(3x2)+(a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+a×(rc×ddx[sin(3x2)]))=ddx[a]×rc×sin(3x2)+(a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×ddx[sin(3x2)])

Addition can be grouped differently, but the result remains the same.

ddx[a]×rc×sin(3x2)+(a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×ddx[sin(3x2)])=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×ddx[sin(3x2)]

2 additional steps

Computing the derivative of a sine function using the chain rule.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×ddx[sin(3x2)]=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×ddx[3x2])

Decomposing the function for the chain rule.

ddx[sin(3x2)]=ddx[sin(x)]×ddx[3x2]

Computing the derivative of a sine function.

ddx[sin(x)]×ddx[3x2]=cos(x)×ddx[3x2]

Substituting the variable back into the function.

cos(x)×ddx[3x2]=cos(3x2)×ddx[3x2]

Computing the derivative of a fraction.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×ddx[3x2])=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×ddx[3]×x2-3×ddx[x2](x2)2)

The derivative of a constant value is always zero.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×ddx[3]×x2-3×ddx[x2](x2)2)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×ddx[x2](x2)2)

Computing the derivative of x raised to the power of n.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×ddx[x2](x2)2)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×(2x2-1)(x2)2)

Subtracting one from a number.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×(2x2-1)(x2)2)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×(2x1)(x2)2)

Any number raised to the power of one equals the number itself.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×(2x1)(x2)2)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×(2x)(x2)2)

Multiplying a number by zero always results in zero.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0x2-3×(2x)(x2)2)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0-3×(2x)(x2)2)

Simplifying the arithmetic expressions.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0-3×(2x)(x2)2)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0-3×(2x)x4)

Adding zero to a number, which does not change its value.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×0-3×(2x)x4)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×-3×(2x)x4)

Simplifying the arithmetic expressions.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×-3×(2x)x4)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×-6xx4)

Simplifying the arithmetic expressions.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×-6xx4)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×(-6x3))

Simplifying the arithmetic expressions.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(cos(3x2)×(-6x3))=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(-6cos(3x2)x3)

Simplifying the arithmetic expressions.

ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)+arc×(-6cos(3x2)x3)=ddx[a]×rc×sin(3x2)+a×ddx[r]×c×sin(3x2)+ar×ddx[c]×sin(3x2)-6acrcos(3x2)x3

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