Calculus Examples

Find the Derivative Using Quotient Rule - d/d@VAR h(w)=(5w^6-w)/w
h(w)=5w6-wwh(w)=5w6ww
Step 1
Differentiate using the Quotient Rule which states that ddw[f(w)g(w)]ddw[f(w)g(w)] is g(w)ddw[f(w)]-f(w)ddw[g(w)]g(w)2g(w)ddw[f(w)]f(w)ddw[g(w)]g(w)2 where f(w)=5w6-wf(w)=5w6w and g(w)=wg(w)=w.
wddw[5w6-w]-(5w6-w)ddw[w]w2wddw[5w6w](5w6w)ddw[w]w2
Step 2
By the Sum Rule, the derivative of 5w6-w5w6w with respect to ww is ddw[5w6]+ddw[-w]ddw[5w6]+ddw[w].
w(ddw[5w6]+ddw[-w])-(5w6-w)ddw[w]w2w(ddw[5w6]+ddw[w])(5w6w)ddw[w]w2
Step 3
Evaluate ddw[5w6]ddw[5w6].
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Step 3.1
Since 55 is constant with respect to ww, the derivative of 5w65w6 with respect to ww is 5ddw[w6]5ddw[w6].
w(5ddw[w6]+ddw[-w])-(5w6-w)ddw[w]w2w(5ddw[w6]+ddw[w])(5w6w)ddw[w]w2
Step 3.2
Differentiate using the Power Rule which states that ddw[wn] is nwn-1 where n=6.
w(5(6w5)+ddw[-w])-(5w6-w)ddw[w]w2
Step 3.3
Multiply 6 by 5.
w(30w5+ddw[-w])-(5w6-w)ddw[w]w2
w(30w5+ddw[-w])-(5w6-w)ddw[w]w2
Step 4
Evaluate ddw[-w].
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Step 4.1
Since -1 is constant with respect to w, the derivative of -w with respect to w is -ddw[w].
w(30w5-ddw[w])-(5w6-w)ddw[w]w2
Step 4.2
Differentiate using the Power Rule which states that ddw[wn] is nwn-1 where n=1.
w(30w5-11)-(5w6-w)ddw[w]w2
Step 4.3
Multiply -1 by 1.
w(30w5-1)-(5w6-w)ddw[w]w2
w(30w5-1)-(5w6-w)ddw[w]w2
Step 5
Differentiate using the Power Rule which states that ddw[wn] is nwn-1 where n=1.
w(30w5-1)-(5w6-w)1w2
Step 6
Simplify.
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Step 6.1
Apply the distributive property.
w(30w5)+w-1-(5w6-w)1w2
Step 6.2
Apply the distributive property.
w(30w5)+w-1+(-(5w6)--w)1w2
Step 6.3
Apply the distributive property.
w(30w5)+w-1-(5w6)1--w1w2
Step 6.4
Simplify the numerator.
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Step 6.4.1
Simplify each term.
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Step 6.4.1.1
Rewrite using the commutative property of multiplication.
30ww5+w-1-(5w6)1--w1w2
Step 6.4.1.2
Multiply w by w5 by adding the exponents.
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Step 6.4.1.2.1
Move w5.
30(w5w)+w-1-(5w6)1--w1w2
Step 6.4.1.2.2
Multiply w5 by w.
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Step 6.4.1.2.2.1
Raise w to the power of 1.
30(w5w1)+w-1-(5w6)1--w1w2
Step 6.4.1.2.2.2
Use the power rule aman=am+n to combine exponents.
30w5+1+w-1-(5w6)1--w1w2
30w5+1+w-1-(5w6)1--w1w2
Step 6.4.1.2.3
Add 5 and 1.
30w6+w-1-(5w6)1--w1w2
30w6+w-1-(5w6)1--w1w2
Step 6.4.1.3
Move -1 to the left of w.
30w6-1w-(5w6)1--w1w2
Step 6.4.1.4
Rewrite -1w as -w.
30w6-w-(5w6)1--w1w2
Step 6.4.1.5
Multiply 5 by -1.
30w6-w-5w61--w1w2
Step 6.4.1.6
Multiply -5 by 1.
30w6-w-5w6--w1w2
Step 6.4.1.7
Multiply --w.
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Step 6.4.1.7.1
Multiply -1 by -1.
30w6-w-5w6+1w1w2
Step 6.4.1.7.2
Multiply w by 1.
30w6-w-5w6+w1w2
30w6-w-5w6+w1w2
Step 6.4.1.8
Multiply w by 1.
30w6-w-5w6+ww2
30w6-w-5w6+ww2
Step 6.4.2
Combine the opposite terms in 30w6-w-5w6+w.
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Step 6.4.2.1
Add -w and w.
30w6-5w6+0w2
Step 6.4.2.2
Add 30w6-5w6 and 0.
30w6-5w6w2
30w6-5w6w2
Step 6.4.3
Subtract 5w6 from 30w6.
25w6w2
25w6w2
Step 6.5
Cancel the common factor of w6 and w2.
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Step 6.5.1
Factor w2 out of 25w6.
w2(25w4)w2
Step 6.5.2
Cancel the common factors.
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Step 6.5.2.1
Multiply by 1.
w2(25w4)w21
Step 6.5.2.2
Cancel the common factor.
w2(25w4)w21
Step 6.5.2.3
Rewrite the expression.
25w41
Step 6.5.2.4
Divide 25w4 by 1.
25w4
25w4
25w4
25w4
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