Year 4 Maths: Every Victorian Curriculum Code, Explained

Year 4 Maths in the Victorian Curriculum F–10 Version 2.0, officially Level 4, is 25 content descriptions, VC2M4A01 through VC2M4ST03, two more than the national Year 4 curriculum. Both extras are genuine splits, not padding. Victoria carves the calculation of change into its own dedicated Number descriptor, separate from general financial modelling, and gives the geometric properties of two-dimensional shapes and three-dimensional objects a standalone Space descriptor rather than folding it into composite-shape work.

This guide covers all 25 codes, exactly where Victoria’s structure diverges from the national curriculum, the three descriptors that decide whether Level 5 goes well, a term-by-term order, and five checks before moving on.

What Victoria does differently at Level 4

Twenty-three of the twenty-five codes match the national Year 4 curriculum descriptor for descriptor. Two changes are genuine.

• VC2M4N08 makes change-giving its own descriptor. The national curriculum folds purchases and change inside its general financial-modelling descriptor, AC9M4N08. Victoria splits it out: solve problems involving purchases and the calculation of change to the nearest 5 cents, with and without digital tools. Practically, that means a Victorian Level 4 program should include a lesson that is specifically about giving change, counting up from the price to the amount tendered, rounding the total to the nearest 5 cents, before the broader financial-modelling descriptor, VC2M4N09, asks students to formulate and solve open financial problems.
• VC2M4SP01 names shape properties as their own idea. The national curriculum moves straight from Year 3’s shape classification into Year 4’s composite shapes, without a dedicated descriptor for comparing the properties of two-dimensional shapes and three-dimensional objects. Victoria makes that comparison explicit and separate from the composite-shape work in VC2M4SP02, which means a Victorian program should spend time on properties, number of faces, edges and vertices, parallel sides, symmetry, before combining shapes into composites.

Everything else, decimal place value, multiplication facts to 10 × 10, the shift from worded to ordered probability, matches the national curriculum at this level. For the wider comparison of how the two frameworks diverge and where they agree, see the Victorian Curriculum versus the Australian Curriculum, and for the equivalent national-curriculum coverage of this exact year level, see Year 4 Maths under the Australian Curriculum. NSW families should see Stage 2 Maths, which bundles this Year 4 content with Year 3 into one syllabus stage.

The level at a glance

Number carries ten of the twenty-five codes, one more than the national curriculum’s nine, because of the dedicated change-giving descriptor. Space carries four rather than three, for the matching reason with shape properties.

Reading the codes

Victorian Maths codes run VC2 + M + level + strand + number, so VC2M4N01 is Level 4 Number, position 1. In primary school the level number matches the year number, so Level 4 is the same cohort as Year 4. Strand letters are N Number, A Algebra, M Measurement, P Probability, SP Space, ST Statistics.

Strand by strand

Number (VC2M4N01 to VC2M4N10)

VC2M4N01, decimal place value to hundredths, is covered below. VC2M4N02 investigates number sequences involving multiples of 3, 4, 6, 7, 8 and 9, a wider set than Level 3’s odd and even work. VC2M4N03 finds equivalent representations of fractions using related denominators and connects fractions to decimal notation, the direct partner to VC2M4N01, best taught in the same unit rather than as separate topics. VC2M4N04 extends fraction work to counting by quarters, halves and thirds including mixed numerals, locating and representing them on number lines. VC2M4N05 covers multiplying and dividing natural numbers by multiples and powers of 10, using the multiplicative relationship between place-value columns rather than a “move the point” trick. VC2M4N06 develops efficient strategies and digital tools for the four operations where division has no remainder. VC2M4N07 covers estimation and rounding to check reasonableness, including financial transactions. VC2M4N08, purchases and change, covered above. VC2M4N09 is the general applied descriptor, modelling additive and multiplicative situations including financial contexts. VC2M4N10 covers following and creating algorithms using addition or multiplication to generate number sets and describe emerging patterns.

Algebra (VC2M4A01 to VC2M4A02)

VC2M4A01 asks students to find unknown values in numerical equations involving addition and subtraction, using the properties of numbers and operations, extending Level 3’s inverse-operations work into equation-solving language. VC2M4A02, covered below, is the multiplication facts to 10 × 10 descriptor, the level’s computational centrepiece.

Measurement (VC2M4M01 to VC2M4M04)

VC2M4M01 extends Level 3’s labelled-instrument measuring to interpreting unmarked and partial units across length, mass, capacity, duration and temperature, using scaled and digital instruments. VC2M4M02 is new, recognising ways of measuring and approximating perimeter and area with formal and informal units. VC2M4M03 extends time work to duration problems including am and pm and unit conversions. VC2M4M04 extends Level 3’s right-angle comparison to naming angles, acute, obtuse, straight, reflex and revolution, against that same right-angle reference.

Probability (VC2M4P01 to VC2M4P02)

VC2M4P01 adds ordering by likelihood and independent versus dependent events to Level 3’s describing-and-naming work. VC2M4P02 extends repeated chance experiments to observing relationships between outcomes, not just recording that variation exists.

Space (VC2M4SP01 to VC2M4SP04)

VC2M4SP01, comparing geometric properties, covered above. VC2M4SP02 covers representing and approximating composite shapes from combinations of familiar shapes. VC2M4SP03 extends Level 3’s landmark-locating maps into formal grid reference systems with directions. VC2M4SP04 is new, recognising line and rotational symmetry and creating symmetrical patterns, including with dynamic geometric software.

Statistics (VC2M4ST01 to VC2M4ST03)

VC2M4ST01 extends data acquisition to digital tools and many-to-one pictographs alongside column graphs. VC2M4ST02 is new, analysing the effectiveness of different displays and discussing the shape of distributions and variation, a genuine step up from Level 3’s compare-and-interpret work. VC2M4ST03 extends guided investigations into full statistical investigations, from survey design through to communicating results.

The three codes that decide Level 5

VC2M4N01: place value continues past the ones column, it does not restart

The misconception: that a decimal is a different kind of number to a whole number, so more digits after the point means a bigger value, 0.45 read as larger than 0.7.

What you will see: asked to order 0.7, 0.45 and 0.29, a student sorts them as if comparing whole numbers, placing 0.45 above 0.7. Asked to build 0.3 with base-ten materials, the same student may reach for three ones rather than three tenths.

The fix: extend the bundling language used for whole-number place value in the other direction, ten tenths make one whole, the same relationship as ten ones make one ten, so a decimal place is one more column on a familiar chart rather than a different kind of number.

VC2M4A02: multiplication facts as a relationship, not a memorised chant

The misconception: that knowing facts to 10 × 10 means having them recited in order, independent of understanding what multiplication represents or how it connects to division.

What you will see: a student who can chant the sevens fluently but, given 4 × 7 out of sequence, has to restart from 1 × 7 to get there. The same student, given a word problem about sharing 63 stickers among 9 friends, may not recognise it as a division problem at all.

The fix: build every new fact family from an array or equal-groups model before drilling recall, and always pair a multiplication fact with its two related division facts as one family, so retrieval does not depend on reciting a sequence from the start.

VC2M4N03: a fraction, a decimal and a percentage are the same number in different clothes

The misconception: that fractions and decimals are unrelated topics that happen to be taught in the same term, so a student can compute 3/10 and 0.3 correctly in isolation but cannot say they are the same number.

What you will see: shown 0.3 and asked to write it as a fraction, a student hesitates or guesses 1/3, confusing the digit with the fraction name rather than reading the place value.

The fix: teach VC2M4N01 and VC2M4N03 in the same unit, and require every decimal task to be answered three ways, as a fraction, as a decimal, and located on a number line, so the equivalence is practised as a habit rather than asserted as a rule.

What students need to arrive with

Level 4 leans on two Level 3 codes directly. VC2M3N03 (unit fractions, understood as numbers rather than shapes) is the prerequisite for both VC2M4N01 decimals and VC2M4N03 fraction equivalence. VC2M3A03 (multiplication facts for 3, 4, 5 and 10) is the prerequisite for extending to the full set to 10 × 10 in VC2M4A02. A child who arrives without a secure sense of a fraction as a number, not just a folded shape, should not start decimal place value; the fix is a short return to Level 3’s unit fractions work rather than pushing ahead into tenths and hundredths.

What this level sets up

• VC2M4N01 (decimal place value to hundredths) becomes Level 5’s decimals beyond two places, and the foundation for VC2M5N04’s percentages.
• VC2M4A02 (multiplication facts to 10 × 10) becomes Level 5’s multi-digit multiplication and division in VC2M5N06 and VC2M5N07, computed on facts that should already be automatic.
• VC2M4N03 (fraction-decimal equivalence) becomes VC2M5N04’s work connecting percentages to their decimal and fraction equivalents.
• VC2M4P01 (ordering outcomes by likelihood, independent versus dependent events) becomes Level 5’s work with equally likely outcomes and frequency in VC2M5P01 and VC2M5P02.

Our guide to which curriculum your state uses is worth checking if you are unsure whether AC9, VC2 or a NSW syllabus applies to your child.

A term-by-term order

1. Term 1: extend and consolidate. VC2M4A01 unknown values in equations, VC2M4SP01 geometric properties, VC2M4N02 multiples of 3, 4, 6, 7, 8 and 9, and VC2M4M01 measuring with unmarked and partial units, confirming Level 3 held before adding new structure.
2. Term 2: decimals and fraction equivalence. VC2M4N01 decimal place value as the centrepiece, taught in the same unit as VC2M4N03 fraction-decimal connections and VC2M4N04 counting by fractions on a number line.
3. Term 3: multiplication to 10 by 10, algorithms and probability. VC2M4A02 facts to 10 × 10, VC2M4N05 multiplying and dividing by powers of 10, VC2M4N10 algorithms, and VC2M4P01 and VC2M4P02 ordered likelihood and repeated experiments.
4. Term 4: apply and extend. VC2M4N06 and VC2M4N07 computation strategies and estimation, VC2M4N08 purchases and change, VC2M4N09 financial modelling, VC2M4M02 to VC2M4M04 perimeter, area, duration and angles, VC2M4SP02 to VC2M4SP04 composite shapes, grid references and symmetry, and VC2M4ST01 to VC2M4ST03 data acquisition, display analysis and statistical investigations.

Decimals and fraction equivalence sit together in Term 2, deliberately before multiplication facts get pushed to their full range in Term 3, because a student who already trusts that 0.3 and 3/10 are the same number has an easier time trusting that 4 × 7 and 7 × 4 are too.

Five checks before Level 5

• Number: ask which is bigger, 0.7 or 0.45, and why. A place-value explanation confirms VC2M4N01; a digit-count guess means reteach decimals as an extension of the bundling model before moving on.
• Algebra: ask for 7 × 4 out of sequence, then the related division fact, 28 divided by 4. Confident recall of both confirms VC2M4A02; needing to restart the sequence means reteach the fact families as related, not memorised in isolation.
• Number: hand the child a $10 note for an $6.35 purchase and ask them to count the change. Counting up from the price in a logical sequence confirms VC2M4N08; subtraction without a strategy or a wrong total means reteach change-giving as a counting skill before returning to written subtraction.
• Measurement: hand the child a shape made from two rectangles and ask for its perimeter and area. Correct working for both confirms VC2M4M02; confusing the two measures means reteach perimeter and area as separate, named questions before combining them.
• Probability: ask the child to order three events by likelihood and explain whether drawing two cards without replacement makes the second draw independent or dependent. A correct order and explanation confirms VC2M4P01; confusion between the two events means reteach independence with a concrete example, replacing versus not replacing a card.

Capabilities and record keeping

Victoria assesses four Capabilities alongside the learning areas, and Level 4’s algorithm work in Number (VC2M4N10) overlaps naturally with the Digital Literacy Capability’s content on describing and following algorithms with branching. A single lesson that has a child write out the steps for a number-pattern algorithm can legitimately evidence both a Mathematics and a Capabilities code.

Whether you are programming for a class or building a VRQA home education portfolio, record the code on the activity as you go. “Maths worksheet” tells a reviewer nothing; “VC2M4N01, tenths and hundredths on a number line, 12 May” answers the question before it is asked. Our guide to state-by-state registration requirements covers what reviewers actually ask for, and teaching maths through interests covers how to wrap these codes around whatever your child is currently into.

Sprout Lessons builds a full interactive lesson from any of these codes, pitched at Level 4 and wrapped in whatever your student is into, with self-checking practice that hints rather than just marking wrong, and the exact VC2 code recorded in the lesson footer. Try it free and generate a Level 4 Maths lesson in about a minute. You can also browse ready-made Year 4 Maths lessons against these codes directly.

Curriculum codes reference the Victorian Curriculum F–10 Version 2.0 © VCAA. The curriculum can be accessed directly at f10.vcaa.vic.edu.au. The VCAA does not endorse this product. Always verify against the current content descriptions and achievement standards.

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