9709/33 · May/June 2026
Download PDFSolve the equation . Give your answer in a simplified exact form. [4]
Find the set of values of satisfying the inequality . Give your answers correct to 3 significant figures. [4]
On an Argand diagram, shade the region which represents the complex numbers, , satisfying the inequalities and . [5]
Solve the equation for . [6]
The parametric equations of a curve are
Show that can be written as , where is a constant to be found. [5]
Find an exact equation of the tangent to the curve at the point where . [4]
Use the substitution to find the exact value of . [6]
The square roots of can be expressed in the Cartesian form , where and are real and exact. By first forming a quartic equation, find the square roots of . Give your answer in exact Cartesian form. [5]
By sketching a suitable pair of graphs, show that the equation has exactly one real root. [1]
Show that, if a sequence of real values given by the iterative formula converges, then it converges to the root of the equation in 8(a). [2]
Show by calculation that this root lies between 1 and 2. [2]
Use the iterative formula given in 8(b) to calculate this root correct to 2 decimal places. Give the result of each iteration to 5 decimal places. [3]
Let .
Express in partial fractions. [5]
Hence, obtain the expansion of in ascending powers of , up to and including the term in . [4]
State the set of values of for which the expansion is valid. [1]
The variables and satisfy the differential equation for . It is given that when . Solve the differential equation and obtain an expression for in terms of . [8]
The points and have position vectors and respectively. The line passes through the points and .
Find a vector equation for . [2]
The line has equation . Find the acute angle between and . [3]
Find the length of the perpendicular from to . [5]






