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Revise formulae and enhance problem-solving abilities with St. Thomas More's starter exercises. Practice partial fractions, parametric equations, curves, and more.
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C4: Starters 1 2 3 4 5 6 7 8 9 Revise formulae and develop problem solving skills. 10 11 12 13 14 15 16 17 18 20 21 19 22 23 24 25 26 27 28 29 30 31 DMO’L.St Thomas More
Starter 1 Express in partial fractions. Hence find DMO’L.St Thomas More
Starter 1 Express in partial fractions. Hence DMO’L.St Thomas More
Starter 1 Back DMO’L.St Thomas More
Starter 2 Express in partial fractions. Hence find DMO’L.St Thomas More
Starter 2 Express in partial fractions. Hence DMO’L.St Thomas More
Starter 2 Back DMO’L.St Thomas More
Starter 3 Find the cartesian equation of the curve given by the parametric equations DMO’L.St Thomas More
Starter 3 Find a way to eliminate t Back DMO’L.St Thomas More
Starter 4 Find the cartesian equation of the curve given by the parametric equations DMO’L.St Thomas More
Starter 4 Find a way to eliminate t Back DMO’L.St Thomas More
Starter 5 Find the cartesian equation the curve given by the parametric equations DMO’L.St Thomas More
Starter 5 Find a way to eliminate t Back DMO’L.St Thomas More
Starter 6 Find the coordinates of the points where the following curves meet the x,y axes Back DMO’L.St Thomas More
Starter 7 Find the coordinates of the points where the following curves meet the x,y axes Back DMO’L.St Thomas More
Starter 8 Find dy/dx leaving your answer in terms of t. Back DMO’L.St Thomas More
Starter 9 Find dy/dx leaving your answer in terms of t. Back DMO’L.St Thomas More
Starter 10 Find the equation of the tangent to the curve defined by the following parametric equations at the point P where t = p/2 At P t = p/2 so that Back giving DMO’L.St Thomas More
Starter 11 Evaluate Back DMO’L.St Thomas More
Starter 12 Complete the table: Back DMO’L.St Thomas More
Starter 13 Complete the table: Back DMO’L.St Thomas More
Starter 14 Complete the table: Back DMO’L.St Thomas More
Starter 15 Evaluate Back DMO’L.St Thomas More
Starter 16 Evaluate Back DMO’L.St Thomas More
Starter 17 in terms of x and y In each case find Back DMO’L.St Thomas More
Starter 18 Find Back DMO’L.St Thomas More
Starter 19 Find Back DMO’L.St Thomas More
Starter 20 Find Back DMO’L.St Thomas More
Starter 21 Use the trapezium rule with 6 strips to estimate DMO’L.St Thomas More
Starter 21 Use the trapezium rule with 6 strips to estimate DMO’L.St Thomas More
Starter 21 Use the trapezium rule with 6 strips to estimate DMO’L.St Thomas More
Starter 21 Use the trapezium rule with 6 strips to estimate DMO’L.St Thomas More
Starter 21 Use the trapezium rule with 6 strips to estimate Back To 3 sig. fig. DMO’L.St Thomas More
Starter 22 Use the trapezium rule with 4 strips to estimate DMO’L.St Thomas More
Starter 22 Use the trapezium rule with 4 strips to estimate DMO’L.St Thomas More
Starter 22 Use the trapezium rule with 4 strips to estimate DMO’L.St Thomas More
Starter 22 Use the trapezium rule with 4 strips to estimate Back To 3 sig. fig. DMO’L.St Thomas More
Starter 23 Region A is bounded by the curve with equation , the lines x= 1, x= 0 and the x-axis. The region A is rotated through 360o about the x-axis Find the volume generated. Volume Back DMO’L.St Thomas More
Starter 24 Points A and B have position vectors i + j + kand 2i - 3j + 2k respectively. Find the vector equation of the straight line through A and B. AB = (2i - 3j + 2k) – (i + j + k) DMO’L.St Thomas More
Starter 24 Points A and B have position vectors i + j + kand 2i - 3j + 2k respectively. Find the vector equation of the straight line through A and B. AB = (2i - 3j + 2k) – (i + j + k) = i –4j + k Hence, a vector equation is; r = i + j + k + l(i –4j + k) Back DMO’L.St Thomas More
Starter 25 Find the acute angle between the two lines with vector equations r = 2i + j + k +t(3i – 5j – k) and r = 7i + 4j + k +s(2i + j – 9k) Consider the angle between their direction vectors; a = (3i – 5j – k)and b =(2i + j – 9k) Cosine of angle angle Back DMO’L.St Thomas More
Starter 26 A line has vector equation r = 3i + 5j - k +t(i + j +k) Find the position vector of the point P, on the line, such that OP is perpendicular to the line. The direction vector of the line is a = i + j +k When t = lOP a DMO’L.St Thomas More
Starter 26 A line has vector equation r = 3i + 5j - k +t(i + j +k) Find the position vector of the point P, on the line, such that OP is perpendicular to the line. The direction vector of the line is a = i + j +k When t = lOP a OP. a = 0 DMO’L.St Thomas More
Starter 26 When t = lOP a OP. a = 0 Back So P has position vector OP = 3i + 5j - k -7/3(i + j +k) DMO’L.St Thomas More
Starter 27 Find the of the tangent to the given curve at the point (1,0). Differentiate; At (1,0) Back Hence tangent is DMO’L.St Thomas More
Starter 28 • A curve has parametric equations x = 4cosq and y = 8sinq. • Find the gradient of the curve at P, the point where q = p/4 • Find the equation of the tangent to the curve at P. • Find the coordinates of the point R where the tangent meets the x-axis. • Find the area of the region bounded by the curve, the tangent and the x-axis. DMO’L.St Thomas More
Starter 28 • A curve has parametric equations x = 4cosq and y = 8sinq. • Find the gradient of the curve at P, the point where q = p/4 At P q = p/4; DMO’L.St Thomas More
Starter 28 A curve has parametric equations x = 4cosq and y = 8sinq. (b) Find the equation of the tangent to the curve at P. At P q = p/4; Equation of tangent; DMO’L.St Thomas More
Starter 28 A curve has parametric equations x = 4cosq and y = 8sinq. (c) Find the coordinates of the point R where the tangent meets the x-axis. At R y=0 DMO’L.St Thomas More
Starter 28 A curve has parametric equations x = 4cosq and y = 8sinq. (d) Find the area of the region bounded by the curve, the tangent and the x-axis. Back DMO’L.St Thomas More