DP Mathematics: Analysis and Approaches Questionbank

AHL 2.14—Odd and even functions, self-inverse, inverse and domain restriction
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[N/A]Directly related questions
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21M.2.AHL.TZ2.12a:
Show that ff is an even function.
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22M.1.AHL.TZ2.6a:
Show that ff is an odd function.
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22M.1.AHL.TZ2.11b.i:
Show that g-1(x)=1+√4x2+xxg−1(x)=1+√4x2+xx.
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22M.1.AHL.TZ2.11b.ii:
State the domain of g-1g−1.
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22M.2.AHL.TZ1.6a:
Show that ff is an odd function.
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22M.2.AHL.TZ1.10b.i:
Show that the inverse function of ff is given by f-1(x)=√x2+1f−1(x)=√x2+1.
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SPM.1.AHL.TZ0.9a:
Find the largest value of aa such that ff has an inverse function.
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SPM.1.AHL.TZ0.9b:
For this value of aa, find an expression for f−1(x)f−1(x), stating its domain.
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19M.1.AHL.TZ2.H_11a:
Describe the transformation by which f(x)f(x) is transformed to g(x)g(x).
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19M.1.AHL.TZ2.H_11b:
State the range of gg.
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19M.1.AHL.TZ2.H_11c:
Sketch the graphs of y=f(x)y=f(x) and y=g(x)y=g(x) on the same axes, clearly stating the points of intersection with any axes.
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19M.1.AHL.TZ2.H_11d:
Find the coordinates of P.
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18N.2.AHL.TZ0.H_9b:
Hence, or otherwise, find the coordinates of the point of inflexion on the graph of y=f(x)y=f(x).
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18N.2.AHL.TZ0.H_9c.i:
sketch the graph of y=f(x)y=f(x), showing clearly any axis intercepts and giving the equations of any asymptotes.
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18N.2.AHL.TZ0.H_9c.ii:
sketch the graph of y=f−1(x)y=f−1(x), showing clearly any axis intercepts and giving the equations of any asymptotes.
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18N.2.AHL.TZ0.H_9d:
Hence, or otherwise, solve the inequality f(x)>f−1(x)f(x)>f−1(x).
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19M.2.AHL.TZ1.H_4a:
Write down the range of ff.
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19M.2.AHL.TZ1.H_4b:
Find f-1(x)f−1(x), stating its domain.
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17N.1.AHL.TZ0.H_11a:
Determine whether fnfn is an odd or even function, justifying your answer.
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18N.1.AHL.TZ0.H_3a:
For a=−π2a=−π2, sketch the graph of y=g(x)y=g(x). Indicate clearly the maximum and minimum values of the function.
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17N.1.AHL.TZ0.H_11c:
Hence or otherwise, find an expression for the derivative of fn(x)fn(x) with respect to xx.
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17N.1.AHL.TZ0.H_11b:
By using mathematical induction, prove that
fn(x)=sin2n+1x2nsin2x, x≠mπ2fn(x)=sin2n+1x2nsin2x, x≠mπ2 where m∈Z.
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17N.1.AHL.TZ0.H_11d:
Show that, for n>1, the equation of the tangent to the curve y=fn(x) at x=π4 is 4x−2y−π=0.