Practice IB Mathematics Analysis and Approaches (AA) Topic SL 5.1—introduction of Differential Calculus with authentic exam-style questions for both SL and HL students. This question bank focuses on the exact syllabus content for SL 5.1—introduction of Differential Calculus and mirrors Paper 1, 2, 3 style where relevant.
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A right circular cylinder of radius and height is inscribed in a hemisphere of fixed radius , such that the base of the cylinder lies on the base of the hemisphere.
Show that the volume of the cylinder can be expressed as .
Find the ratio of the height to the radius that maximizes the volume of the cylinder.
Hence, find the exact maximum volume in terms of .
The function models the electric potential (in volts) at a point with coordinate metres on a straight sensor line.
Identify the vertical and horizontal asymptotes of .
Describe the behavior of the electric potential as and , and interpret its significance.
Sketch the graph of , marking key points and asymptotes, to illustrate the potential distribution.
The function models the stress (in MPa) on a structural beam as a function of position (in metres) along the beam.
Identify the vertical and horizontal asymptotes of .
Describe the behavior of the stress as and , and interpret its significance.
Sketch the graph of , marking key points and asymptotes, to illustrate the beam's stress distribution.
The 'SkyEye' Ferris wheel at an amusement park models the vertical height of a passenger cabin using the function , where is the height in metres above the ground and is the time in minutes since the ride started. At its lowest point, the cabin is m above the ground, and at its highest point, it reaches m.
The cabin reaches a height of metres for the first time when the time elapsed is minutes and seconds. Find the value of to the nearest integer, given that .
During one complete revolution, find the total time, in minutes, for which the cabin is at a height of at least metres.
Determine the vertical velocity of the cabin when , giving your answer in metres per minute.
The height of a cabin on a second Ferris wheel, the 'Junior Wheel', is modelled by , where is the time in minutes. For this wheel, the minimum height is m and the maximum height is m. The cabin is first at its minimum height at and first reaches its maximum height at . Determine the values of and .
Find the first time when the cabins on both wheels are at the same height.
The function models the pressure variation (in kPa) in a pipeline as a function of position (in metres), measured relative to a monitoring station.
Identify the vertical and horizontal asymptotes of .
Describe the behavior of the pressure variation as and , and interpret its significance.
Sketch the graph of , marking key points and asymptotes, to illustrate the pipeline pressure variation.