d/dx(logx/x)
= [d/dx(logx)*x-logx*d/dx(x)]/x^2
= [1/x*x-logx]/x^2
= [1-logx]/x^2
= 1/x^2-logx/x^2 Ans.
= [d/dx(logx)*x-logx*d/dx(x)]/x^2
= [1/x*x-logx]/x^2
= [1-logx]/x^2
= 1/x^2-logx/x^2 Ans.
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Just use the product rule,
y' = u'v + v'u (the quotient rule is good as well)
let u = log(x ) u' = 1/x
v = 1/x v' = -1/x^2
y' = 1/x * 1/x + -1/x^2 * log(x)
= 1/(x^2) * (1 - log(x))
y' = u'v + v'u (the quotient rule is good as well)
let u = log(x ) u' = 1/x
v = 1/x v' = -1/x^2
y' = 1/x * 1/x + -1/x^2 * log(x)
= 1/(x^2) * (1 - log(x))
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I am assuming you mean d/dx(log(x)/x)...if so then use quotient rule..
(u/v)' = (vdu - udv)/v^2
d/dx(log(x)/x) = [x(1/(xln(10))) - log(x)] / x^2
= (1 - ln(10)log(x)) / (ln(10)x^2)
(u/v)' = (vdu - udv)/v^2
d/dx(log(x)/x) = [x(1/(xln(10))) - log(x)] / x^2
= (1 - ln(10)log(x)) / (ln(10)x^2)
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d/dx (logx/x) = (d/dx(logx) * x - logx * d/dx(x)] / x^2
. . . . . . . . . . = (1/x * x - logx) / x^2
. . . . . . . . . . = (1 - logx) / x^2
Mαthmφm
. . . . . . . . . . = (1/x * x - logx) / x^2
. . . . . . . . . . = (1 - logx) / x^2
Mαthmφm
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Use the quotient rule
(x/x – logx)/x² = (1 – logx)/x² Assuming that log x is the natural log
(1 – lnx)/(x²ln(10)) if it is the common log
(x/x – logx)/x² = (1 – logx)/x² Assuming that log x is the natural log
(1 – lnx)/(x²ln(10)) if it is the common log
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d/dx(logx/x)
= [x*1/x - log(x)]/x^2
=(1-log(x)/x^2
= [x*1/x - log(x)]/x^2
=(1-log(x)/x^2
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d/dx(logx/x)
=> 1/x * 1/x - logx * /x^2
=> 1/x^2 - logx * /x^2
=> (1- logx) * /x^2
=> 1/x * 1/x - logx * /x^2
=> 1/x^2 - logx * /x^2
=> (1- logx) * /x^2
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FOR WHAT????