DP Mathematics: Applications and Interpretation Questionbank
AHL 3.13—Scalar and vector products
Description
[N/A]Directly related questions
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EXN.2.AHL.TZ0.7c.i:
Find an expression for the acceleration of the ball at time .
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EXN.2.AHL.TZ0.7a:
Show that the ball is moving in a circle with its centre at and state the radius of the circle.
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EXN.2.AHL.TZ0.7b.ii:
Hence show that the velocity of the ball is always perpendicular to the position vector of the ball.
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EXN.2.AHL.TZ0.7b.i:
Find an expression for the velocity of the ball at time .
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EXN.2.AHL.TZ0.7c.ii:
Find the value of at the instant the string breaks.
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EXN.2.AHL.TZ0.7c.iii:
How many complete revolutions has the ball completed from to the instant at which the string breaks?
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21M.1.AHL.TZ2.8b:
In the case that , determine whether the lines intersect.
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21M.1.AHL.TZ2.8a:
Find the possible value(s) for .
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21N.1.AHL.TZ0.16b:
Find the value of when the ship will be closest to the lighthouse.
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21N.1.AHL.TZ0.16a:
Find the position vector of the ship at time hours.
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21N.1.AHL.TZ0.16c:
An alarm will sound if the ship travels within kilometres of the lighthouse.
State whether the alarm will sound. Give a reason for your answer.
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22M.1.AHL.TZ1.6c:
Find , the angle the rope makes with the platform.
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22M.1.AHL.TZ2.16a:
Find the velocity vector of .
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22M.1.AHL.TZ2.16b:
Show that the acceleration vector of is never parallel to the position vector of .
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SPM.1.AHL.TZ0.11a:
Given that v is perpendicular to B, find the value of .
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SPM.1.AHL.TZ0.11b:
The force, F, produced by P moving in the magnetic field is given by the vector equation F = v × B, .
Given that | F | = 14, find the value of .
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18N.1.AHL.TZ0.H_5a:
Find and simplify an expression for a • b in terms of .
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18N.1.AHL.TZ0.H_5b:
Hence or otherwise, find the values of for which the angle between a and b is obtuse .
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19M.1.AHL.TZ1.H_1:
Let a = and b = , .
Given that a and b are perpendicular, find the possible values of .
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17N.2.SL.TZ0.S_3a:
Find .
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17N.2.SL.TZ0.S_3b:
Let . Find .
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18M.1.SL.TZ1.S_6:
Six equilateral triangles, each with side length 3 cm, are arranged to form a hexagon.
This is shown in the following diagram.The vectors p , q and r are shown on the diagram.
Find p•(p + q + r).
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18M.2.SL.TZ2.S_8a.i:
Find .
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18M.2.SL.TZ2.S_8a.ii:
Find .
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18M.2.SL.TZ2.S_8b:
Find the angle between PQ and PR.
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18M.2.SL.TZ2.S_8c:
Find the area of triangle PQR.
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18M.2.SL.TZ2.S_8d:
Hence or otherwise find the shortest distance from R to the line through P and Q.
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19M.2.SL.TZ2.S_7:
The vector equation of line is given by r .
Point P is the point on that is closest to the origin. Find the coordinates of P.
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18M.1.SL.TZ2.S_1a:
Find a vector equation for L1.
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18M.1.SL.TZ2.S_1b:
The vector is perpendicular to . Find the value of p.
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16N.1.SL.TZ0.S_4a:
Find a vector equation of the line that passes through P and Q.
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16N.1.SL.TZ0.S_4b:
The line through P and Q is perpendicular to the vector 2i nk. Find the value of .
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19M.1.SL.TZ1.S_6:
The magnitudes of two vectors, u and v, are 4 and respectively. The angle between u and v is .
Let w = u − v. Find the magnitude of w.
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19M.1.SL.TZ2.S_2a:
parallel.
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19M.1.SL.TZ2.S_2b:
perpendicular.
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19M.1.AHL.TZ2.H_2b:
Hence or otherwise, find the area of the triangle ABC.
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19M.1.AHL.TZ2.H_2a.ii:
Find the vector .
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19M.1.AHL.TZ2.H_2a.i:
Find the vector .