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Calculus Examples
h(w)=5w6-wwh(w)=5w6−ww
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)=5w6−w and g(w)=wg(w)=w.
wddw[5w6-w]-(5w6-w)ddw[w]w2wddw[5w6−w]−(5w6−w)ddw[w]w2
Step 2
By the Sum Rule, the derivative of 5w6-w5w6−w 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])−(5w6−w)ddw[w]w2
Step 3
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])−(5w6−w)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
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(30w5-1⋅1)-(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
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--w⋅1w2
Step 6.4
Simplify the numerator.
Step 6.4.1
Simplify each term.
Step 6.4.1.1
Rewrite using the commutative property of multiplication.
30w⋅w5+w⋅-1-(5w6)⋅1--w⋅1w2
Step 6.4.1.2
Multiply w by w5 by adding the exponents.
Step 6.4.1.2.1
Move w5.
30(w5w)+w⋅-1-(5w6)⋅1--w⋅1w2
Step 6.4.1.2.2
Multiply w5 by w.
Step 6.4.1.2.2.1
Raise w to the power of 1.
30(w5w1)+w⋅-1-(5w6)⋅1--w⋅1w2
Step 6.4.1.2.2.2
Use the power rule aman=am+n to combine exponents.
30w5+1+w⋅-1-(5w6)⋅1--w⋅1w2
30w5+1+w⋅-1-(5w6)⋅1--w⋅1w2
Step 6.4.1.2.3
Add 5 and 1.
30w6+w⋅-1-(5w6)⋅1--w⋅1w2
30w6+w⋅-1-(5w6)⋅1--w⋅1w2
Step 6.4.1.3
Move -1 to the left of w.
30w6-1⋅w-(5w6)⋅1--w⋅1w2
Step 6.4.1.4
Rewrite -1w as -w.
30w6-w-(5w6)⋅1--w⋅1w2
Step 6.4.1.5
Multiply 5 by -1.
30w6-w-5w6⋅1--w⋅1w2
Step 6.4.1.6
Multiply -5 by 1.
30w6-w-5w6--w⋅1w2
Step 6.4.1.7
Multiply --w.
Step 6.4.1.7.1
Multiply -1 by -1.
30w6-w-5w6+1w⋅1w2
Step 6.4.1.7.2
Multiply w by 1.
30w6-w-5w6+w⋅1w2
30w6-w-5w6+w⋅1w2
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.
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.
Step 6.5.1
Factor w2 out of 25w6.
w2(25w4)w2
Step 6.5.2
Cancel the common factors.
Step 6.5.2.1
Multiply by 1.
w2(25w4)w2⋅1
Step 6.5.2.2
Cancel the common factor.
w2(25w4)w2⋅1
Step 6.5.2.3
Rewrite the expression.
25w41
Step 6.5.2.4
Divide 25w4 by 1.
25w4
25w4
25w4
25w4