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Chapter 9 - Constant Acceleration - Constant Acceleration Formulae
8問 • 2年前
  • Oluwole Akande
  • 通報

    問題一覧

  • 1

    What are the SUVAT equations

    Equations used to find properties of objects that move with constant acceleration

  • 2

    What do the letters in the SUVAT equations represent

    s - displacement, u - initial velocity, v - final velocity, a - acceleration , t - time

  • 3

    How is the Equation " v = u + at" derived

    1 - We know that on a velocity-time graph, the starting velocty is u and the final velocity is v, 2 - We know that the gradient of the time = the acceleration = change in y / change in x, 3 - Therefore a = (v - u) / t, 4 - Rearrange for v = u + at

  • 4

    How is the Equation "s = t(u + v / 2)" derived

    1 - We know that on a velocity-time graph, the starting velocity is u and the final velocity is v, 2 - We know that the displacement is the area under a velocity-time graph, 3 - Assuming the graph takes the shape of a trapezium, the area is (a + b / 2) × h, 4 - Taking a as u, b as v, and h as t, substitute to find the equation s = t(u + v / 2)

  • 5

    How is the Equation "v² = u² + 2as" derived

    1 - We know that t = (v - u)/a and s = t(u + v / 2), 2 - Eliminate t from the equation by substituting to get the equation s = (v - u /a)(u + v / 2), 3 - Rearrange to get 2as = v² - u², 4 - Rearrange for v²

  • 6

    How is the Equation "s = ut + ½at²" derived

    1 - We know that v = u + at and s = t(u + v / 2), 2 - Eliminate v by substituting to get the equation s = t(u + u + at / 2), 3 - Therefore s = t(2u/2 + at/2), 4 - Therefore s = t(u + ½at), 5 - Therefore s = ut + ½at²

  • 7

    How is the Equation "s = vt - ½at²" derived

    1 - We know that u = v - at and s = ut + ½at², 2 - Eliminate u by substituting to get the equation s = t(v - at) + ½at², 3 - Therefore s = vt - at² + ½at², 4 - Therefore s = vt - ½at²

  • 8

    What is the Quadratic Formula

    x = (-b ± (√b² - 4ac)) / 2a

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    問題一覧

  • 1

    What are the SUVAT equations

    Equations used to find properties of objects that move with constant acceleration

  • 2

    What do the letters in the SUVAT equations represent

    s - displacement, u - initial velocity, v - final velocity, a - acceleration , t - time

  • 3

    How is the Equation " v = u + at" derived

    1 - We know that on a velocity-time graph, the starting velocty is u and the final velocity is v, 2 - We know that the gradient of the time = the acceleration = change in y / change in x, 3 - Therefore a = (v - u) / t, 4 - Rearrange for v = u + at

  • 4

    How is the Equation "s = t(u + v / 2)" derived

    1 - We know that on a velocity-time graph, the starting velocity is u and the final velocity is v, 2 - We know that the displacement is the area under a velocity-time graph, 3 - Assuming the graph takes the shape of a trapezium, the area is (a + b / 2) × h, 4 - Taking a as u, b as v, and h as t, substitute to find the equation s = t(u + v / 2)

  • 5

    How is the Equation "v² = u² + 2as" derived

    1 - We know that t = (v - u)/a and s = t(u + v / 2), 2 - Eliminate t from the equation by substituting to get the equation s = (v - u /a)(u + v / 2), 3 - Rearrange to get 2as = v² - u², 4 - Rearrange for v²

  • 6

    How is the Equation "s = ut + ½at²" derived

    1 - We know that v = u + at and s = t(u + v / 2), 2 - Eliminate v by substituting to get the equation s = t(u + u + at / 2), 3 - Therefore s = t(2u/2 + at/2), 4 - Therefore s = t(u + ½at), 5 - Therefore s = ut + ½at²

  • 7

    How is the Equation "s = vt - ½at²" derived

    1 - We know that u = v - at and s = ut + ½at², 2 - Eliminate u by substituting to get the equation s = t(v - at) + ½at², 3 - Therefore s = vt - at² + ½at², 4 - Therefore s = vt - ½at²

  • 8

    What is the Quadratic Formula

    x = (-b ± (√b² - 4ac)) / 2a