Years 5-6 Science: Every Victorian Curriculum Code, Explained

The Victorian Levels 5 and 6 Science band is seventeen content descriptions covering two years of school, and it contains six ideas the Australian Curriculum does not reach until Year 7, Year 8, Year 10, or ever. Evolution. Fossils. Mixtures and solutions. Earthquakes, volcanic eruptions and floods. Gravity named as the thing holding the planets in orbit. Light being absorbed and transmitted, not only reflected and refracted. A Victorian teacher working from a national scope and sequence will be missing every one of them.

The band is coded VC2S6, and the number is the top of the band rather than a level, so Level 5 and Level 6 share one code set. There is no VC2S5. This is a working guide to all seventeen codes: what Victoria asks for that ACARA does not, what each strand is doing collectively, the three descriptions hardest to get right, a two-year split with a term-by-term order, and the checks that tell you whether a student is ready for Level 7.

What changes coming out of Levels 3 and 4

The content changes a lot, but the content is not what catches students out. Five procedural demands arrive at once, and every one of them is a step up in kind rather than in size. A student who was comfortable at Level 4 can look like they have gone backwards by the middle of Level 5, and it is almost always the method.

• Fair tests stop being recognised and start being designed. This is the single biggest shift in the band. VC2S4I02 asked students to identify the attributes of a fair test inside a scaffold you provided. VC2S6I02 asks them to decide which variables are changed, which are measured and which are controlled. Identifying the elements of somebody else’s design and producing your own are different skills, and the second one is not taught by doing more of the first.
• Measurement becomes repeated. VC2S4I03 asked for formal measurement with scaled instruments. VC2S6I03 asks for reasonable precision across repeated measurements. One trial is no longer a result. Victoria puts repetition in the descriptor itself, where the national equivalent (AC9S6I03) leaves it implicit in the word precision.
• Data gets processed, not just organised. VC2S4I04 asked for tables, graphs and models that show patterns. VC2S6I04 adds processing and adds trends. Processing means doing arithmetic on the numbers, which in practice means averaging the repeated trials, and a trend needs a numerical axis and usually a line.
• Fairness becomes error. VC2S4I05 asked whether the test was fair, which is a yes or a no. VC2S6I05 asks students to identify sources of error and to select evidence supporting their explanations. Error has a size and a direction. Selecting evidence means accepting that not every data point counts equally, which is a genuinely uncomfortable idea for a class that has been taught to record everything faithfully.
• Ethics and permissions arrive. VC2S6I02 asks for safe and ethical use of equipment and materials, and for permissions to be obtained for investigations on Country and Place or in protected areas. Both of those clauses are wider than the national wording, which covers safe use and Country/Place permissions only. Any Level 5 or 6 investigation involving live animals, a creek, a reserve or a national park now has a descriptor attached to the question of who was asked.

One thing worth noticing about how these descriptions are written, because it changes how you record evidence. Victorian Science 2.0 states its descriptions as knowledge claims rather than as student actions: the national curriculum says investigate, model, describe, and Victoria says what is to be understood and leaves the verb to you. That is more freedom and less guidance. It also means a portfolio entry that names only the code does not show what the student did, so the task has to be described alongside it.

The band at a glance

Reading the codes

The pattern is VC2 + S + band + strand letter + number, with U for Understanding, I for Inquiry and H for Human Endeavour, and the band number is the top level in the band rather than the level itself. VC2S2 is Foundation to Level 2, VC2S4 is Levels 3 and 4, VC2S6 is Levels 5 and 6, which is this page, then VC2S8 and VC2S10. Searching for VC2S5U01 returns nothing, and there is nothing wrong with your search. Victorian Maths and English are numbered level by level, so anyone fluent in VC2M codes or VC2E codes hits this every time. The rest of the framework is covered in our Victorian Curriculum 2.0 explainer.

A count worth knowing before you plan. Seventeen codes for two years looks lighter than the national twenty-four across Years 5 and 6, and it is not. Seven of the twelve Year 6 national descriptions are word-for-word repeats of Year 5, and the eighth differs by one comma, so the national total of genuinely distinct descriptions for those two years is sixteen. Victoria has seventeen. The band is slightly more content than the national pair, not less, and the difference is concentrated in Science Understanding: nine descriptions where the national curriculum has eight.

Six things Victoria teaches years earlier than ACARA

Most of this band lines up with the national Year 5 and Year 6 descriptions. Six pieces do not, and they are the reason a converted national program will have holes in it. Our full comparison of the two curricula covers the structural differences across every learning area; these are the Science ones for Levels 5 and 6.

• Evolution, at VC2S6U02. Victoria asks students to understand that organisms have changed over time, and names fossils and the scientific record as the evidence for it. Nationally, evolution appears once in Science F–10, at AC9S10U02 in Year 10, as the theory of evolution by natural selection. Victoria is asking for the observation four to five years earlier, with none of the mechanism attached.
• Fossils, again. The word fossil does not appear in a single Australian Curriculum Science content description, Foundation to Year 10. In Victoria it appears twice, at VC2S4U01 in the previous band and again here, and the second appearance is the one that does the work: at Levels 3 and 4 a fossil was an example of something once living, and here it is evidence about the past.
• Mixtures and solutions, at VC2S6U03. Victoria attaches mixtures, including solutions, to the same description that carries the particle model. Nationally, mixtures are not named until AC9S7U06 in Year 7, where they arrive alongside pure substances and separation techniques. A Victorian Level 6 student is expected to know that combining two or more substances makes a mixture a full year before the national curriculum introduces the word.
• Natural hazards, at VC2S6U06. Sudden geological change and extreme weather, with earthquakes, volcanic eruptions, wildfires and floods named, and with their impacts reduced by human action and technological innovation. No Australian Curriculum Science description at any year level contains the word hazard, earthquake or volcano. The nearest national content is tectonic activity at AC9S8U03 in Year 8, which is about mechanism and evidence rather than impact and mitigation, so it is not the same content two years later. It is different content.
• Gravity as the cause of orbit, at VC2S6U07. Victoria says the force of gravity is what keeps Earth and the other planets going around the Sun. The national equivalent, AC9S6U02, describes the movement of Earth and the planets relative to the sun and never says why they stay there. Nationally, gravitational force is named at AC9S4U03 as one force among several, then not again until AC9S7U04 in Year 7. Victoria connects the force to the orbit at Level 6, which is the connection that makes the solar system explicable rather than merely describable.
• Absorption and transmission of light, at VC2S6U08. Victoria names four things light can do when it meets an object: absorbed, transmitted, reflected or refracted. The national description, AC9S5U03, names reflection and refraction only. Neither absorbed nor transmitted appears anywhere in AC9 Science. This looks like a small addition and it is not, because absorption is what makes shadows and colour make sense, and transmission is the difference between a window and a wall.

Strand by strand

Science Understanding (VC2S6U01 to VC2S6U09)

Nine descriptions across two years is one every seven or eight weeks. They group into four clusters, and two of the clusters have to be taught in order while the other two do not.

Living things (U01, U02). Habitats described by their physical conditions, then organisms changing over time. This is a strict sequence, and the reason is worth stating: U02 is unintelligible without U01. Change over time only makes sense against conditions that differ, so a student who cannot describe a habitat as a set of physical conditions has nothing for the fossil evidence to be evidence of. Teach U01 first, and teach it as measurements (temperature, light, moisture, salinity) rather than as a picture of a place.

Matter (U03, U04). The particle model plus mixtures, then reversible and irreversible change. Also a strict sequence, and they should be run as one long unit rather than two. Reversibility is a claim about particles: dissolving is reversible because the particles are still there and still themselves, and rusting is not because they are not. Taught apart, U04 becomes a sorting activity with no reasons in it.

Earth and space (U05, U06, U07). Slow surface processes, then sudden change and hazards, then gravity and the solar system. U05 before U06 is worth keeping. U07 is independent of both and can go anywhere, which is useful, because it is the one piece of content in the band whose evidence has to be collected across months rather than within a lesson.

Energy (U08, U09). Light, then electrical circuits. No dependency between them, and they are the two best investigation topics in the band because both produce numbers cheaply. Use them to carry the method rather than saving them for when the method is secure.

Science Inquiry (VC2S6I01 to VC2S6I06)

Six descriptions forming one cycle, run repeatedly rather than taught six times. The cycle should run at least four times across the two years, and unlike the previous band, the load is front-loaded rather than spread. Everything in VC2S6I02 has to be in place before I03, I04 and I05 can be anything more than Level 4 repeated, because you cannot average repeated trials that were never planned as repeatable, and you cannot discuss sources of error in a design you did not make.

The load-bearing code is VC2S6I02, and the practical consequence is that the first term of Level 5 should choose its content for how obvious the variables are, not for where it sits in a scope and sequence. Light is that content. Shadow length against distance from the torch has one thing to change, one number to measure and three obvious things to hold still, and it produces a trend rather than a set of categories.

VC2S6I05 is the code most often reduced to nothing. Ask a Level 5 class for sources of error and you will get “we might have made a mistake” or “we should have been more careful”, which is not a source of error, it is an apology. A source of error is a specific feature of the method that made a number wrong in a particular direction: the shadow edge was fuzzy so the reading could be two centimetres either way, the torch was hand-held so the distance drifted between trials, the thermometer was read after the lid came off. Insist on the shape of the sentence rather than the sentiment.

Science as a Human Endeavour (VC2S6H01 and VC2S6H02)

Two descriptions, and H01 carries a clause the national curriculum does not have at this level: scientific knowledge changes over time. Nationally that idea waits for AC9S7H01 in Year 7. It is also the harder half to evidence, because a change over decades cannot be demonstrated inside a lesson, and a poster about one famous scientist argues the opposite of it.

The cheapest honest way to cover it is to run one idea forwards through several people, and this band hands you two candidates that the students are studying anyway. The particle model has a genuinely cumulative history. So does the solar system, where an Earth-centred model was replaced not because someone was cleverer but because the measurements stopped fitting. H02 attaches most naturally to VC2S6U06, where a hazard mitigation decision is unavoidable, local and contestable: where the fire breaks go, whether the levee is built, which road is closed first. The description asks for problems identified, responses weighed and decisions made, so give students the actual choice rather than the answer.

The three hardest codes in the band

VC2S6U03: dissolving is not melting, and the sugar has not gone

The misconception: that dissolving destroys the solute, and that dissolving and melting are the same event. Both are reinforced by everyday language, where sugar “disappears” into tea and snow “dissolves” in the sun.

What you will see: asked whether a glass of water weighs more after a spoon of sugar is stirred in, most of the class says no, and a good fraction say it weighs less because the sugar broke down. Asked to draw the particles, students draw the sugar particles shrinking or softening rather than separating and spreading out. Asked what melted the sugar, they answer the water, which is a temperature explanation for something temperature did not do. And when VC2S6U04 arrives, dissolving gets sorted as irreversible, because a change you cannot see your way back from feels permanent.

The fix: put it on a balance before anyone says a word. Weigh a sealed container of water plus a measured spoon of sugar, note the mass, stir until it is invisible, weigh again. The number does not move. That single reading defeats the disappearance explanation more decisively than any diagram, and it is the same argument in the same shape as the sealed dish demonstration from the Levels 3 and 4 band, which many of these students will remember. Then recover the sugar: a shallow dish on a windowsill for a week returns visible crystals, which is dissolving proved reversible, which is VC2S6U04 evidenced by the same activity. Keep melting alongside it as the contrast, with one word insisted on: melting needs heat and needs only one substance, dissolving needs a second substance and does not care about heat. Two substances or one is the test students can actually apply.

VC2S6U07: why it is cold in July

The misconception: that the seasons are caused by Earth being closer to or further from the Sun. It is the most durable wrong answer in primary Science, it is held by a majority of adults, and it survives being told the correct answer because the tilt explanation sounds less plausible than the distance one. Alongside it sits a second: that there is no gravity in space, which matters more in Victoria than nationally, because Victoria names gravity as the thing holding the orbit together.

What you will see: asked why it is hot in January, students say Earth is nearer the Sun then. Asked whether it is summer everywhere at once, most say yes. Asked what would happen to Earth if the Sun’s gravity switched off, students say it would fall into the Sun, which is exactly backwards. Asked why astronauts float, they say there is no gravity up there, which cannot be true of a station in orbit, since an orbit is what gravity produces. And asked to draw Earth’s orbit, almost everyone draws a long ellipse, which invites the distance explanation before a word has been said.

The fix: attack the diagram first. Draw the orbit to scale, or as near to circular as makes no difference, because the standard textbook ellipse is a perspective drawing that students read as a shape. Then defeat the distance explanation with one fact and one question: Earth is actually closest to the Sun in early January, in the middle of an Australian summer and an English winter, so distance predicts the opposite of what happens, and it cannot explain why the two hemispheres disagree at all. Replace it physically. A torch held at a fixed distance, shone onto a tilted globe, spreads the same light over more surface at the tilted end. Trace the lit patch on paper at two tilts and compare the areas. That is the whole explanation and it takes ten minutes. For gravity, use a ball on a string swung in a circle: let go and it flies off in a straight line, it does not fly outwards, and it certainly does not fall towards your hand. Gravity is the string.

VC2S6U02: the giraffe did not stretch its neck

The misconception: that organisms change during their lifetimes because they need to, and pass the change on. This is the code with no national equivalent until Year 10, so there is no national resource pitched at Level 6 and you will be building this one yourself.

What you will see: asked why giraffes have long necks, students say the ancestors stretched to reach leaves and their offspring were born with longer necks. Asked why a cave fish has no eyes, they say it stopped using them so they went away. Asked what a fossil is, roughly half say a bone, which is wrong in an interesting way, and the other half say a very old animal, which loses the point entirely. Asked how we know anything about organisms nobody has seen, the answer is that scientists guessed. Every one of these is a want-based explanation, and want-based explanations are extremely comfortable, which is why telling students the right answer does not shift them.

The fix: never explain a feature and always explain a population. The sentence to ban is “so that it can”, and the sentence to require is “the ones that had it”. Run it as a physical sort rather than as a story: give thirty paper beetles in three colours, scatter them on a patterned cloth, and have a student pick up as many as they can in ten seconds. Count what survives, breed the survivors by doubling them, rescatter and repeat. Three rounds and the population has visibly changed without one beetle changing at all, which is the distinction the whole code rests on. Then bring in the evidence half, because Victoria asks for fossils and the scientific record, not just the idea. A fossil is not a bone: it is a trace, and the material has usually been replaced, which is what makes it look like rock and connects straight back to the three-pile sort these students did at VC2S4U01. Show two fossils of related organisms from different layers and ask what changed between them. That is “seen in the record” done properly, and it is a much stronger portfolio artefact than a timeline poster.

What students need to arrive with

From the Levels 3 and 4 Science band, four codes gate this one. VC2S4U04, solids, liquids and gases with change of state, is the direct prerequisite for the particle model at VC2S6U03, and Victoria’s early introduction of gases means these students should arrive with it, unlike their interstate counterparts. VC2S4U01, the once-living category and fossils, is what VC2S6U02 turns into evidence. VC2S4U06, rocks, minerals and soils, is what weathering at VC2S6U05 acts on. And VC2S4I02, the attributes of a fair test, is the thing VC2S6I02 withdraws the scaffold from, so a student who was still being handed the variables at Level 4 has two steps to take here rather than one.

The maths prerequisites are heavier in this band than in any earlier one, because processing data is now written into the description. VC2M5ST02, interpreting line graphs that show change over time, is what a trend needs. VC2M5ST01, acquiring, validating and representing data, does the same work as identifying sources of error. VC2M5M01, choosing units and using smaller ones for a more accurate measure, is precision stated in the maths curriculum’s own words. Our guides to the Level 5 Maths codes and the Level 6 Maths codes cover all three, and sequencing Science behind them saves teaching averaging twice. For VC2S6I06, the purpose and audience clause is the same one running through our guide to the Level 5 English codes. The Victorian Capabilities attach cleanly here too: Critical and Creative Thinking sits underneath the whole inquiry strand, and Ethical Understanding attaches to the ethics and permissions clause in VC2S6I02 and to the hazard decisions in VC2S6U06 in a way worth recording rather than leaving implicit.

What this band sets up

• Habitats and change over time (U01, U02) become VC2S8U01, similarities and differences within and between groups of organisms, and VC2S8U04, matter and energy flowing through ecosystems and modelled with food webs. The evolution work pays off again at VC2S10U05, where variation, isolation and adaptation are named as the processes.
• The particle model and mixtures (U03) become VC2S8U05, particle and kinetic theory, and VC2S8U06, classifying matter as pure substances or mixtures. Getting solutions established here is what makes that classification possible there.
• Reversible and irreversible change (U04) becomes VC2S8U08, physical change distinguished from chemical change. The Level 6 sort is the same sort with reasons that hold up.
• Weathering and sudden change (U05, U06) become VC2S8U10, tectonic activity and geological features, and VC2S8U11, the rock cycle across different timescales. The slow-versus-rapid contrast you build here is the timescale idea that code rests on.
• Gravity and the solar system (U07) become VC2S8U12, cyclic changes in the positions of Earth, Sun and Moon, and VC2S8U14, balanced and unbalanced forces including gravitational force.
• Light and circuits (U08, U09) become VC2S8U15 on forms of energy and VC2S8U17 on circuits transferring energy when current flows.
• The inquiry cycle expands from six codes to eight at VC2S8I01 to VC2S8I08, and the new pair is where the demand actually rises: analysing methods and claims for assumptions (I06) and constructing evidence-based arguments (I07) split off from what VC2S6I05 currently carries alone.

Splitting the band across two years

Victoria will not do this for you, and the VCAA site will not tell you which level a code belongs to, because officially none of them belong to one. This split puts the hardest method on the easiest content, keeps the two strict sequences intact, and takes advantage of the fact that the Victorian year does half the teaching if you sequence around it.

Level 5

1. Term 1: light, and the whole new method. VC2S6U08 is the cheapest content in the band and the clearest for variables: a torch, a ruler, an object and a wall. Run shadow length against distance as the first designed investigation, with VC2S6I02 in writing before anything is touched. Establish repeated measurement in the first fortnight by having the whole class run one identical trial and putting every result on the board: the spread is the lesson. Take shadow work outside in February and March while the sun is high and reliable, then bring absorption, transmission, reflection and refraction indoors later in the term. Sort objects into what light passes through, bounces off and is swallowed by, because those two extra words are the Victorian addition and they need their own activity.
2. Term 2: particles, then mixtures, then reversibility. VC2S6U03 and VC2S6U04 as one long unit in the term with the most uninterrupted indoor time. Establish the two rules before any diagram: the particles themselves do not change, only their spacing and motion, and between them there is nothing at all. Run the balance demonstration for dissolving, start the recovery dish, then use the week it takes to evaporate to teach the reversible and irreversible sort. Attach VC2S6H01 here: the particle model was built over centuries by people who mostly never met, and it changed when the measurements stopped fitting.
3. Term 3: weathering and erosion, in the wet. VC2S6U05 in the wettest part of the Victorian year, when run-off is doing the work in front of you. A sloped tray of soil under a watering can covers all four processes in an afternoon, and comparing it against the schoolyard covers the slow contrast. This is the term for the permissions clause in VC2S6I02, because the investigations move outdoors and creeks and reserves come into scope.
4. Term 4: habitats, measured. VC2S6U01 when living things are most active and most visible. Insist on physical conditions as numbers rather than adjectives: temperature in sun and shade, moisture under mulch and on bare ground, light under canopy. That is VC2S6I03 discharged on content that needs it anyway. Term 4 is where VC2S6I06 should carry real weight, with a written report of the Term 3 erosion investigation aimed at a named audience, containing a conclusion that selects its evidence rather than listing everything that happened.

Level 6

1. Term 1: change over time, and start the log. VC2S6U02 opens the year on the back of the Term 4 habitat work, which is the sequence the content demands. Run the beetle sort, then the fossil evidence. Separately, start a sunrise and sunset log in week one and keep it every week all year, because Term 3 needs data that cannot be collected retrospectively and a log started in June proves nothing.
2. Term 2: electrical circuits. VC2S6U09 in the coldest, most indoor term, because it needs bench time and no weather. It is the band’s second-best investigation content: an insulator and conductor sort is a genuine fair test with an obvious variable, and adding components to a circuit produces a measurable change. Push VC2S6I04 here to processed data and a line, since averaging is routine by now.
3. Term 3: gravity, tilt and the shortest day. VC2S6U07 after the winter solstice, which falls at the very end of Term 2, so Term 3 opens with the turn already visible in two terms of log data. Graph day length against date and the pattern argues for itself. Teach the tilt with the torch and the globe, kill the distance explanation with the January fact, and teach gravity with the ball on a string. This is the only content in the band whose best evidence is a dataset the class collected across months, and it makes an unusually strong portfolio artefact.
4. Term 4: sudden change, hazards and the decision. VC2S6U06 as the Victorian fire season begins, when the mitigation content is live, local and covered in the news the students are already hearing. Open with the contrast against Level 5: the same surface, changed in an afternoon instead of a century. Then run VC2S6H02 as a real decision with a real trade-off, since hazard reduction always has one. Close the band with a written argument rather than a report, which is the shape VC2S8I07 will ask for next.

Three decisions worth defending if a reviewer asks. Light sits in Level 5 Term 1 because VC2S6I02 is the hardest new demand in the band and design work is only teachable on content where the variables are obvious: erosion has too many at once, the particle model produces no measurements at all, and habitats are not investigable in a fortnight. VC2S6U05 and VC2S6U06 are split across the two years even though they read as a slow-and-fast pair, because taught together the volcano does all the work and the four surface processes get two lessons; a year apart, U06 opens as a recall check on U05 and the contrast is real rather than rhetorical. And VC2S6U07 sits in Level 6 Term 3 rather than anywhere earlier purely because of the data: a day length graph needs at least two terms behind it before a student can argue from it.

Assessment checkpoints

One diagnostic per cluster, each pointing at a named reteach.

• Living things. Ask why a cave fish has no eyes. An answer about the ones born without them not being worse off means VC2S6U02 is secure. “It stopped using them” or “it did not need them” means rerun the beetle sort, because want-based explanations do not shift by being corrected. Separately, ask what a habitat is and require three physical conditions with units: adjectives instead of numbers means VC2S6U01 was taught as a picture.
• Matter. Stir sugar into water and ask whether the glass weighs more, less or the same, then ask whether you could get the sugar back. Same, and yes, means VC2S6U03 and VC2S6U04 are joined up. Less, or gone for good, means the balance demonstration has to be run again with the students holding the scales, because the argument has to be made by the instrument rather than by you.
• Earth. Show a photograph of a gully and a photograph of a flood-damaged road and ask which took longer and what people could do about each. Distinguishing slow processes from sudden ones, and naming a mitigation for the second, means VC2S6U05 and VC2S6U06 are both landed. Erosion used as the name for all four processes means reteach U05 as a sequence rather than a vocabulary list.
• Space and forces. Ask why it is cold in July. Tilt, and light spread over more surface, means VC2S6U07 is secure. Further from the Sun means reteach with the torch and the tilted globe, and use the January fact, since the distance explanation predicts the opposite of what happens. Follow up with why astronauts float: an answer that keeps gravity switched on is the target.
• Energy. Ask why you can see through a window but not through a door. Light passes through one and is absorbed by the other, using both words, means VC2S6U08 covers the Victorian additions rather than only reflection and refraction. For VC2S6U09, hand over a circuit with a gap and a tray of materials and ask which will make the globe light: a confident sort with a reason means the insulator and conductor half is secure.
• Inquiry. Give a set of three trials that do not agree and ask why they differ. A specific feature of the method, named with a direction, means VC2S6I05 is secure. “We made a mistake” means reteach with the whole-class identical trial, where thirty results disagree and nobody was careless. Separately, hand over a question and a bench and ask for the plan in writing before anything is touched: three variable lines filled in, plus how many times the trial will be repeated, means VC2S6I02 is at band standard.
• Human endeavour. Ask for a scientific idea that people used to think and no longer do, and what changed their mind. An answer naming evidence rather than a cleverer person means VC2S6H01 has landed, including the changes-over-time clause that the national curriculum leaves until Year 7.

Records and evidence

Banded codes make record keeping harder rather than easier, because the obligation is to show all seventeen covered by the end of Level 6 rather than a tidy year’s worth of each. For a VRQA registration portfolio, keep a running band map: seventeen codes down one side, and the date, the level and the activity against each. The knowledge-statement wording of the Victorian descriptions makes the activity column non-optional, because the code alone does not say what the student did.

The artefacts that carry the most weight in this band are a planning sheet completed before the trial with all three variable lines filled in, a results table with repeated trials and a mean, a line graph with a numerical axis showing a trend, a written conclusion naming a source of error, and the day length log, which is the single best piece of evidence in the two years because it cannot be produced retrospectively or downloaded. Keep the raw sheets alongside the neat write-ups: a page of thermometer readings is direct evidence of VC2S6I03 and a typed report is not. Caption with the code and the date, so “VC2S6I02 and VC2S6U08, shadow length against distance, three trials, 14 August” rather than “Science: light”.

Our Victorian homeschooling resources guide and state-by-state registration requirements cover what VRQA reviewers actually ask for, and which curriculum your state uses settles which code set applies to you. If you are working to the national codes instead, the equivalents to this band are our guides to the Year 5 Science AC9 codes and the Year 6 Science AC9 codes, and in New South Wales the K–6 Science and Technology outcomes bundle Stage 3 at a much coarser grain again. Anyone moving a student into Victoria at Level 6 should expect the evolution, mixtures and natural hazard content to be new, because no other Australian framework carries it at this point.

One practical note on this band specifically. Every new demand in it is procedural, which means the content is free to be anything that produces measurable results, and a student who has just been handed experimental design, repeated measurement and sources of error inside three terms will engage with all three far more willingly on content they chose. A fair test on which material blocks the most light discharges VC2S6I02 exactly as well as one on soil, and it covers VC2S6U08 while it does it. Using an interest as the way in costs nothing against the description. Sprout Lessons builds an interactive lesson from any of these seventeen codes, pitched at Level 5 or Level 6 and wrapped in whatever the student is currently interested in, with the VC2 code recorded in the footer. Try it free.

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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