Years 6-10

Years 6-10 Science Program

A structured Years 6-10 Science pathway aligned with the NSW syllabus and designed to build scientific knowledge, investigation skills and confident explanation.

Years 6-10 Science

Program Overview

CamLoc's Science Program develops the knowledge and working-scientifically skills students need across secondary Science. The current confirmed 2026 sequence begins with Year 6 students entering Stage 4 through scientific investigation and forces, while the Stage 4 cohort extends into atomic structure, evidence-based models and the periodic table with a strong Year 8 emphasis.

Who This Program Is For

  • Students wanting stronger science foundations
  • Students preparing for senior science
  • Curious learners who benefit from structured explanation

What Students Learn

  • investigable questions and fair testing
  • data collection, graphing and evaluation
  • forces, motion and simple machines
  • atomic structure and scientific models
  • periodic table patterns and prediction
  • scientific writing and evidence-based explanation

Teaching Approach

Lessons connect core concepts with inquiry skills, written explanation and applied examples so students can think and communicate scientifically.

Program Pathway

Students build broad science foundations across Years 6-10, with extra support for chemistry concepts that underpin senior pathways.

Why Families Choose This Program

  • NSW syllabus alignment
  • Conceptual explanation
  • Scientific writing support
  • Senior science preparation

Term 3, 2026

2026 Year 6 and Stage 4 Science Scope

This is the confirmed 2026 Term 3 sequence. Year 6 students begin Stage 4 through scientific investigation and forces, while the Stage 4 cohort studies atomic structure and the periodic table with a strong Year 8 emphasis. Lessons combine explicit teaching, practical work, data analysis, diagrams, homework and evidence-based explanation.

Beginning Stage 4

Year 6 Science

Students develop the skills needed to plan reliable investigations, then apply those skills to forces, magnetism and simple machines in real-world contexts.

Weeks 1-2: Working Scientifically

Students ask investigable questions, plan fair and safe tests, collect qualitative and quantitative data, construct tables and graphs, evaluate reliability and communicate evidence-based conclusions.

  • Observations, inferences and predictions
  • Variables, hypotheses and fair testing
  • Laboratory safety and measuring equipment
  • Data, graphs, mean, range and reliability

Weeks 3-5: Forces in Action

Students compare contact and non-contact forces, use force diagrams, predict changes in motion and distinguish mass, weight and work through simple calculations.

  • Friction, air resistance, buoyancy and gravity
  • Balanced and unbalanced forces
  • Mass, weight and force diagrams
  • Force and work calculations

Weeks 6-7: Magnetism and Electromagnets

Students investigate magnetic poles and fields, test how force changes with distance, construct electromagnets and connect magnetic effects to everyday technologies.

  • Attraction, repulsion and magnetic fields
  • Force and distance investigations
  • Electromagnet design
  • Technology and Earth-system connections

Weeks 8-10: Simple Machines and Investigation

Students examine levers, pulleys and inclined planes, calculate mechanical advantage and apply force ideas to practical design problems.

  • Lever classes and pulley systems
  • Inclined planes
  • Mechanical advantage
  • Applied design and Aboriginal and Torres Strait Islander examples
End-of-term outcome

Students can plan and evaluate an investigation, present and interpret evidence, use force diagrams and simple formulas, and explain how forces and simple machines operate in real contexts.

Year 7 cohort with a Year 8 emphasis

Stage 4 Science

Students extend scientific vocabulary, abstract thinking and evidence-based reasoning through atomic models, classification of matter and periodic-table patterns.

Weeks 1-2: Atomic Structure

Students identify protons, neutrons and electrons, compare their charge and relative mass, use Bohr-style models and explain why most of an atom is empty space.

  • Atoms, elements and subatomic particles
  • The nucleus and electron shells
  • Particle charge and relative mass
  • Bohr-style atomic models

Weeks 3-4: Development of the Atomic Model

Students trace major changes in atomic theory, interpret Rutherford's gold-foil evidence and explain why scientific models change when new evidence becomes available.

  • Dalton, Thomson and Rutherford
  • Bohr, Schrodinger and Chadwick
  • The gold-foil experiment
  • Evidence, models and technology

Weeks 5-8: Matter and the Periodic Table

Students classify matter, compare material properties, examine the historical development of the periodic table and use its modern structure.

  • Elements, compounds and alloys
  • Metals, non-metals and metalloids
  • Mendeleev and periodic-table development
  • Atomic number, groups, periods and symbols

Weeks 9-10: Electron Configuration and Trends

Students connect electron shells and valence electrons to position and behaviour, compare key element groups and use patterns to predict properties.

  • First 18 electron configurations
  • Valence electrons
  • Groups 1, 2, 17 and 18
  • Reactivity trends and prediction
End-of-term outcome

Students can explain atomic structure, describe how scientific models develop from evidence, use the periodic table to interpret and predict properties, and connect electron configuration to chemical behaviour.

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