VCE Specialist Unit 2 Skills () « back to units
The skills below are aligned with the VCE Specialist Mathematics Study Design 2023-2027. Skills are organised
into key areas: Simulation, Sampling & Sampling Distributions, Trigonometry & Reciprocal Functions, Transformations of the Plane, Vectors in the Plane (2D), and Complex Numbers (Introduction).
To master a skill, you will have to gain 10 stars.
There are 3 levels to each skill,
- Easy: A star will be taken away if you get 3 consecutive wrong answers.
- Medium: A star will be taken away if you get 2 consecutive wrong answers.
- Hard: A star will be taken away on each wrong answer.
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have you master these skills with a ground up approach.
If you get an answer wrong, you can read the solution and helpful tips that briefly explain the skill/topic you are practising.
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Simulation, Sampling & Sampling Distributions
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Trigonometry & Reciprocal Functions
- Sketch graphs of sec(x), csc(x), cot(x) and identify key features
- Evaluate reciprocal trig functions for standard angles
- Identify domain, range, and asymptotes of reciprocal trig functions
- Sketch the modulus function |f(x)| from f(x)
- Solve equations involving |f(x)| = k
- Identify and sketch conics: parabolas (general form)
- Identify and sketch conics: ellipses
- Identify and sketch conics: hyperbolas
- Determine the locus of points satisfying a given condition
- Convert between parametric and Cartesian equations
- Sketch curves given by parametric equations
- Convert between Cartesian and polar coordinates
- Sketch curves in polar coordinates
- Identify polar forms of common curves (cardioid, rose, spiral)
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Transformations of the Plane
- Represent a linear transformation as a 2x2 matrix
- Apply rotation matrices for angle theta
- Apply reflection matrices in lines through the origin
- Apply dilation and shear transformation matrices
- Find the composition of two linear transformations
- Find the inverse of a linear transformation
- Apply a transformation to a graph or region
- Calculate the area scale factor using the determinant
- Determine invariant points and lines of a transformation
- Describe the geometric effect of a given transformation matrix
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Vectors in the Plane (2D)
- Represent vectors graphically and in component form
- Perform vector addition and subtraction (graphical and algebraic)
- Perform scalar multiplication of vectors
- Calculate the magnitude of a vector
- Find unit vectors
- Calculate the scalar (dot) product of two vectors
- Find the angle between two vectors using the dot product
- Determine if vectors are perpendicular using the dot product
- Calculate scalar and vector projections
- Resolve a vector into rectangular components
- Prove geometric results using vectors (midpoints, parallelograms)
- Apply vectors to displacement and velocity problems
- Apply vectors to relative velocity problems
- Apply vectors to forces and equilibrium (statics)
- Introduction to vectors in 3D (i, j, k components)
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Complex Numbers (Introduction)
- Define i and express complex numbers in Cartesian form a + bi
- Perform addition and subtraction of complex numbers
- Perform multiplication of complex numbers
- Perform division of complex numbers (multiply by conjugate)
- Find the complex conjugate and its properties
- Plot complex numbers on an Argand diagram
- Calculate the modulus of a complex number
- Calculate the argument of a complex number
- Convert between Cartesian and polar form (r cis theta)
- Multiply and divide in polar form
- Solve quadratic equations with complex roots
- Solve polynomial equations over C (factor theorem)
- Sketch subsets and regions of the complex plane
- Verify conjugate root theorem for polynomials with real coefficients
Building on Unit 1
Unit 2 extends your foundations into trigonometry, transformations, vectors, and complex numbers - preparing you for the rigour of Year 12.
What Makes Unit 2 Special?
Reciprocal functions, conics, polar and parametric forms
Matrix representations of rotations, reflections, and dilations
Dot product, projections, and physical applications
Cartesian and polar form, Argand diagrams, and polynomial roots