Set 4 — 2026 past papers

  1. 4.01: Stationary points and exact distance
  2. 4.02: Approximate change using differentiation
  3. 4.03: Tangent to a logarithmic curve
  4. 4.04: Approximate change in a rational function
  5. 4.05: Normal to an exponential curve
  6. 4.06: Differentiating a trigonometric power
  7. 4.07: Normal and coordinate triangle

Set 3 — 2021–2025 past papers

  1. 3.65: Normal cutting a cubic again
  2. 3.90: Small change for y=sin5xy = \sin 5x
  3. 3.43: Related rates for a sphere
  4. 3.58: Derivative, small change and stationary point
  5. 3.59: Intersection of a tangent and a line
  6. 3.35: Quotient/product derivative and stationary points
  7. 3.94: Derivative of tan at π/3
  8. 3.93: Normal to a curve; find k
  9. 3.75: Differential identity for y=mx2+n/x2y=mx^{2}+n/x^{2}
  10. 3.39: Polynomial factors and second-derivative test
  11. 3.74: Line, curve and tangent intersection
  12. 3.52: Domain and derivative of a rational power curve
  13. 3.53: Normal determining constants p and q
  14. 3.54: Non-zero k for a tangent condition
  15. 3.55: Normal to a cubic curve
  16. 3.29: Completing the square, stationary point and sketch
  17. 3.30: Tangent line to a curve from a linear condition
  18. 3.91: Normal to y=4cosxy = 4\cos x meeting the xx-axis
  19. 3.48: Normal gradient and normal equation
  20. 3.51: Tangent condition determining constants
  21. 3.22: Product rule, no stationary points, and rates
  22. 3.24: Related rates in a triangular prism water container
  23. 3.92: Approximate change using differentiation
  24. 3.25: Small change relating x and y
  25. 3.6: Differentiation, small increments and connected rates
  26. 3.44: Gradient condition and finding f(x)
  27. 3.45: Derivative of a composite power and stationary point
  28. 3.122: Eliminate parameter; tangent when θ=π/3\theta=\pi/3
  29. 3.13: Surd point on a curve and stationary point
  30. 3.16: Stationary point involving surds
  31. 3.19: Values of k for a tangent line to a curve
  32. 3.20: Minimum surface area of hemisphere–cylinder solid
  33. 3.2: Quotient rule and unique stationary point
  34. 3.3: Distance between intersection of a curve and a line
  35. 3.4: Related rates for an expanding cube
  36. 3.5: Tangent to a cubic and inverse-function gradient

Set 2

  1. 2.57: Tangent to a cubic and second intersection
  2. 2.80: Optimising journey time across a field
  3. 2.15: Stationary points, second derivative test and surface area
  4. 2.65: Differentiation and small change in a quotient
  5. 2.66: Volume and related rates in a truncated cone
  6. 2.55: Normal gradient and tangent to a rational curve
  7. 2.77: Cubic curve gradient and tangent
  8. 2.12: Connected rates of change with parametric variables
  9. 2.41: Related rates of a circle's area
  10. 2.62: Stationary points on a cubic composite curve
  11. 2.25: Optimising the area of a window
  12. 2.74: Differentiation of a product with a surd
  13. 2.75: Tangents to a quadratic curve
  14. 2.7: Product and quotient rule differentiation
  15. 2.9: Volume and related rates in a triangular prism
  16. 2.39: Volume and related rates in a conical cup
  17. 2.22: Tangent to a circle and its normal
  18. 2.47: Optimising the surface area of a cylinder
  19. 2.34: Normal to a quadratic curve
  20. 2.17: Tangent to a cubic and second intersection
  21. 2.18: Stationary area of a trapezium
  22. 2.70: Optimising the volume of a conical tent
  23. 2.2: Differentiation and stationary points of a rational function
  24. 2.32: Quotient rule and approximate change in x

Set 1

  1. 1.56: Stationary point of a product with a square root
  2. 1.84: Quotient rule and related rates
  3. 1.10: Rate of change of the area of a circle
  4. 1.40: Rate of change of volume of a sphere
  5. 1.42: Product rule and stationary point
  6. 1.70: Differentiation, stationary point and its nature
  7. 1.20: Quotient rule and approximate change
  8. 1.21: Normal to a square-root curve
  9. 1.52: Product rule and related rates
  10. 1.53: Cylinder with minimum surface area
  11. 1.81: Differentiation, increments and a normal
  12. 1.8: Optimising the volume of a cylinder
  13. 1.9: Product-rule differentiation and equation of a normal
  14. 1.38: Open cuboid with minimum surface area
  15. 1.39: Normal to a curve with a fractional power
  16. 1.67: Quotient rule and small increments
  17. 1.50: Product rule and small increments
  18. 1.35: Stationary point of a quotient with a square root
  19. 1.76: Product rule and small increments
  20. 1.3: Stationary point of a power function
  21. 1.4: Quotient rule and connected rates of change
  22. 1.31: Quotient rule with a square-root numerator
  23. 1.60: Normal intercepts and midpoint
  24. 1.63: Stationary point and small increments
  25. 1.29: Optimising the perimeter of a badge