A Level Further Mathematics AQA

This subject is broken down into 123 topics in 32 modules:

  1. Proof 1 topics
  2. Work, Energy and Power 10 topics
  3. Complex Numbers 8 topics
  4. Matrices 8 topics
  5. Further Algebra and Functions 7 topics
  6. Graphs of Functions 3 topics
  7. Further Calculus 6 topics
  8. Further Vectors 5 topics
  9. Polar Coordinates 2 topics
  10. Hyperbolic Functions 4 topics
  11. Differential Equations 5 topics
  12. Numerical Methods 3 topics
  13. Dimensional Analysis 1 topics
  14. Momentum and Impulse 3 topics
  15. Strings, Springs and Elastic Energy 2 topics
  16. Elastic Collisions 4 topics
  17. Circular Motion 3 topics
  18. Centres of Mass 6 topics
  19. Discrete Random Variables 2 topics
  20. The Poisson Distribution 2 topics
  21. Type I and Type II Errors 1 topics
  22. Continuous Random Variables 5 topics
  23. Chi Squared Tests 1 topics
  24. The Exponential Distribution 2 topics
  25. Confidence Intervals and the Normal Distribution 3 topics
  26. Graph Theory 3 topics
  27. Networks 4 topics
  28. Network Flows 2 topics
  29. Linear Programming 5 topics
  30. Critical Path Analysis 3 topics
  31. Game Theory 3 topics
  32. Binary Operations and Group Theory 6 topics
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  • 32
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  • 123
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  • 49,625
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  • 6+
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This page was last modified on 28 September 2024.

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Further Mathematics

Proof

Proof

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Proof

Basics of Proofs

  • Proofs are mathematical statements that are shown to be true using logical reasoning and previously established theorems.
  • A proof can be as simple as demonstrating that for a given equation, the left-hand side equals the right-hand side.
  • More complex proofs can involve a series of calculations or logical deductions.
  • Remember that a proof must show that something is true for all relevant cases - just giving example cases isn't sufficient.

Direct Proof

  • A direct proof is made by a logical sequence of statements that lead to the conclusion being proved.
  • It often involves the application of specific rules or properties, such as the properties of integers or relational operators.
  • Often, direct proofs start with a premise, and then apply a series of logical steps to reach a conclusion.
  • Always write your steps clearly for direct proof and justify each step.

Proof by Induction

  • An inductive proof is a method used mainly to establish propositions about all natural numbers, or about all members of an infinite set.
  • Two steps: Base Step - showing it is true for the first case (usually n=1 or n=0); Inductive Step - assuming it is true for some arbitrary case, then showing it is also true for next case.
  • It's a two-stage process - if both stages are correct, then the proposition is considered to be proved.
  • Use the rules of algebra to manipulate your equations in the inductive step.

Contrapositive Proof

  • A contrapositive proof uses the law of contrapositive: if P implies Q, then NOT Q implies NOT P.
  • Usually used when the original statement is difficult to prove directly.
  • Essentially proving the opposite can lead to the same result.
  • Useful to make the difficult aspects of the proof accessible.

Proof by Contradiction

  • Also known as reductio ad absurdum, this is used when a proposition is shown to be true because its negation leads to a contradiction.
  • Begin by assuming that the statement you want to prove is false, then work from there until you get a contradiction.
  • Strong method to prove statements in mathematics.
  • Be clear and concise when writing out a proof by contradiction.

Proof Using Counter Examples

  • In a proof by counterexample, you disprove a statement by showing an example where it isn't true.
  • Only applicable when disproving universal statements - not for proving them.
  • Always verify that your counterexample is both valid and relevant to the given supposition.

Course material for Further Mathematics, module Proof, topic Proof

Further Mathematics

Dimensional Analysis

Dimensions and Formulas

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Dimensions and Formulas

Dimensional Analysis Principles

  • Dimensional analysis is a mathematical technique used for checking the consistency of physical equations.
  • It involves comparing the dimensions (also known as units) on each side of an equation.
  • It works on the premise that quantities added to or equated with each other must have the same dimension.

Dimensions in Physics

  • There are three fundamental dimensions utilised in physics: Length (L), Mass (M), Time (T).
  • Other dimensions, such as velocity, acceleration, force, energy, can all be expressed in terms of these fundamental dimensions.
  • For example, velocity is dimensionally expressed as length divided by time (L/T), acceleration as length divided by time squared (L/T^2), force as mass times acceleration (ML/T^2).

Dimensional Formulas

  • A dimensional formula is an expression showing how and which of the fundamental quantities represent the dimensions of a physical quantity.
  • Dimensional formulas are written by enclosing the dimensions in square brackets, e.g. [M], [L] and [T] denotes the dimensions of mass, length and time respectively.
  • It's vital to remember that magnitudes are dimensionless.

Uses & Limitations of Dimensional Analysis

  • Dimensional analysis can be used to check the validity of an equation, predict the form of an equation, or convert units.
  • It is limited in that it only provides a check for consistency, not a proof that a formulation is valid.
  • Equations without dimension (e.g., trigonometric and exponential functions, certain constants) cannot be examined with dimensional analysis.
  • This method cannot predict dimensionless constants of proportionality due to their nature.

Sample Problems

  1. Identifying and writing dimensional formulas for various physical quantities.
  2. Checking the consistency of equations using dimensional analysis.
  3. Conversion of units of physical quantities using dimensional analysis.
  4. Figuring out the relationships between measured quantities in a novel physics problem.

By mastering these principles, formulas, and problem-solving strategies, you will be well-prepared to tackle any question related to dimensional analysis. Practice is key here, so be sure to apply what you learn to a range of different problems.

Course material for Further Mathematics, module Dimensional Analysis, topic Dimensions and Formulas

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