Subjects · Leaving Cert Applied Maths
Leaving Cert Applied Maths: Calculus & variable acceleration
How often Calculus & variable acceleration comes up on the Applied Maths papers, every year it was asked, and questions to try.
HL Asked on 3 of the last 3 Higher Level papers, most recently in 2025. banker
Quick ones on Calculus & variable acceleration.
- Differentiate v with respect to t
- Integrate v with respect to t
- Multiply v by t
- a = s dv/dt
- a = dv/ds
- a = v dv/ds
- 12 m/s²
- 6 m/s²
- 14 m/s²
Show the answers
(a) Integrate v with respect to t
(b) a = v dv/ds
(c) 12 m/s²
Higher Level
Asked on 3 of the last 3 Higher Level papers, most recently in 2025. banker
Every paper, year by year
| Year | Where it came up |
|---|---|
| 2025 | Q2 |
| 2024 | Q3 |
| 2023 | Q1 |
Links open the State Examinations Commission’s paper for that year.
More Calculus & variable acceleration questions
Calculus & variable acceleration, 3 marks
a = 6t m/s² and v = 2 m/s at t = 0. Velocity when t = 3 s?
- 27 m/s
- 18 m/s
- 29 m/s
Show the answer
29 m/s
Integrate: v = 3t² + c, and v = 2 at t = 0 gives c = 2. At t = 3, v = 27 + 2 = 29 m/s. Dropping c gives 27; 18 is the acceleration at t = 3.
Calculus & variable acceleration, 2 marks
Integrating ∫ t e^(2t) dt by parts. Which should you let u be?
- t e^(2t)
- t
- e^(2t)
Show the answer
t
Choose u to be the part that gets simpler when differentiated: t → 1. Then dv = e^(2t) dt integrates easily to ½e^(2t), and the new integral is simple.
Calculus & variable acceleration, 3 marks
v = 4 − t² m/s for t ≥ 0. Distance travelled until the particle is first at rest, 2 d.p.?
- 5.33 m
- 8.00 m
- 2.67 m
Show the answer
5.33 m
v = 0 at t = 2. Distance = ∫₀² (4 − t²) dt = 8 − 8/3 = 16/3 = 5.33 m. 8 forgets the t² term; 2.67 is just the 8/3 part.
Other Applied Maths topics
- Connected particles & pulleys
- Constant acceleration (suvat)
- Dijkstra's algorithm
- Displacement & velocity graphs
- First-order difference equations
- Forces & Newton's laws
- Friction & inclined planes
- Graphs & network terminology
- Horizontal circular motion
- Loans, savings & finance models
- Matrices & adjacency
- Minimum spanning trees
- Momentum & direct collisions
- Oblique collisions
- Projectile motion
- Recurrence relations & differences
- Reducing second-order DEs
- Resisted motion & drag
- Second-order difference equations
- Separable differential equations
- The modelling cycle & assumptions
- Vectors & the dot product
- Vertical circular motion
- Dimensional analysis
- Dynamic programming & Bellman
- Project scheduling & critical path
- Work, energy & conservation
- Greedy vs dynamic algorithms
- Hooke's law & elastic energy