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IGCSE Physics, Cambridge 0625, Malaysia

Year 10 IGCSE Physics Study Plan

A Year 10 Cambridge IGCSE Physics 0625 plan for building concepts, Mathematics, practical skills and topic practice before full-paper revision.

Written by IGCSEPhysics Content Team · Physics subject adviser: K. S. Tan, 15+ years teaching IGCSE Physics · Checked against the Cambridge IGCSE Physics (0625) 2026 to 2028 syllabus

This page brings the main information for Year 10 IGCSE Physics Study Plan into one place. Check the current syllabus cycle, then use the related practice to test what you can reproduce independently.

Schools teach topics in different orders. Follow the school’s sequence while using the current Cambridge IGCSE Physics 0625 syllabus as the coverage checklist.

What should Year 10 achieve?

By the end of Year 10, a student should be able to:

  • explain the topics already taught without relying on copied notes
  • identify the relevant equation and units for familiar calculations
  • rearrange simple equations accurately
  • complete short topical question sets
  • read and draw standard graphs
  • identify variables and basic experimental controls
  • distinguish Core and Supplement sections accurately
  • maintain an honest list of weak outcomes
  • retry corrected questions independently

A student does not need to have completed every full paper. The priority is a reliable base.

Step 1: Build a current syllabus checklist

Create one row for each syllabus outcome taught by the school.

OutcomeTaught?Can explain?Can calculate?Can answer without notes?Next review
Example: densityyesyespartlynoFriday

Use four statuses:

  • Not taught
  • Taught but insecure
  • Secure in a familiar question
  • Secure in a mixed or unfamiliar question

Do not mark a topic complete because the notes have been copied. Completion requires independent retrieval and application.

Step 2: Use a weekly learning cycle

A useful Year 10 cycle is:

After the school lesson

  • write a five-sentence summary without the textbook
  • list new definitions, equations and units
  • identify any step that is unclear
  • complete two short recall questions

Within three days

  • answer a small topical set
  • mark it carefully
  • classify each error
  • rewrite any weak explanation
  • retry one similar question

At the end of the week

  • complete a short mixed quiz containing older content
  • reproduce the week’s equations and units from memory
  • update the syllabus checklist
  • schedule the next retrieval date

This spacing is more useful than one long session immediately before a school test.

Step 3: Separate Physics from Mathematics weaknesses

When a calculation is wrong, identify the exact cause.

ErrorPhysics issue?Mathematics issue?
Wrong equation selectedusuallysometimes question interpretation
Correct equation, wrong rearrangementnoyes
Correct method, wrong unit conversionpartlyyes
Correct arithmetic, impossible resultchecking and interpretationpartly
Blank because quantities were not recognisedyespartly

Use the Maths for IGCSE Physics guide for targeted work on algebra, ratios, standard form, gradients and units.

Step 4: Learn equations with conditions

For every equation, learn five things:

  1. the quantity relationship in words
  2. the symbols
  3. the units
  4. the tier
  5. the conditions under which it applies

For example, pV=constantpV = \text{constant} applies to a fixed mass of gas at constant temperature and is Supplement. It should not be used in every gas question.

The current equations list excludes older formulas that are no longer part of the 2026 to 2028 syllabus.

Step 5: Use topical practice before full papers

A topic is not secure after one worked example. Use a progression:

  1. definition or recall question
  2. direct one-step calculation
  3. rearranged calculation
  4. explanation question
  5. graph or diagram question
  6. practical application
  7. mixed question with another topic

Move to the next level only after corrections can be reproduced without notes.

Full papers can be introduced gradually once enough syllabus content has been covered. Before that point, many blank questions simply reflect untaught content and provide poor diagnostic information.

Step 6: Develop practical skills alongside theory

Do not postpone practical skills until Paper 5 or Paper 6 revision.

Year 10 should practise:

  • independent, dependent and control variables
  • instrument range and resolution
  • reading scales
  • repeat measurements and averages
  • table headings and units
  • graph scales and best-fit lines
  • gradients
  • identifying anomalies
  • limitations and specific improvements

The practical-skills guide organises these skills independently of the examination route.

Step 7: Build a graph routine

For each graph:

  1. identify the independent variable for the horizontal axis
  2. identify the dependent variable for the vertical axis
  3. include quantity and unit in each heading
  4. choose a scale that uses the available space
  5. plot with small, accurate crosses
  6. draw the appropriate best-fit line or curve
  7. calculate a gradient using a large triangle where required
  8. interpret the physical meaning

Graph competence supports motion, electricity, thermal Physics, waves and practical assessment.

Step 8: Maintain an error log that leads to action

A useful error log records:

DateTopicQuestionError typeCorrect ideaRetry dateRetried successfully?

Do not copy the full mark scheme into the log. Record the missing decision or idea.

Examples:

  • converted cm to m incorrectly
  • used total distance instead of displacement
  • omitted the force-per-unit-area link
  • drew a series voltmeter
  • gave a vague experimental improvement

The retry is the important part. A correction read once is not evidence of learning.

A four-stage Year 10 pathway

Stage 1: Foundations

Priorities:

  • measurement
  • units and prefixes
  • speed and graphs
  • mass, weight and density
  • basic forces
  • particle model

Focus on accurate definitions, apparatus use and one-step calculations.

Stage 2: Connected concepts

Priorities:

  • work, power and energy transfer
  • pressure
  • thermal energy transfer
  • wave properties
  • reflection and refraction

Begin linking diagrams, explanations and calculations.

Stage 3: Circuits and practical reasoning

Priorities:

  • current, potential difference and resistance
  • series and parallel circuits
  • electrical power
  • circuit measurement
  • graph and practical skills

Build circuit diagrams from principles rather than memorising pictures.

Stage 4: Consolidation

Priorities:

  • short mixed tests
  • Core and Supplement distinction
  • practical planning
  • recurring Mathematics gaps
  • weak-topic recovery
  • transition into Year 11 paper practice

The exact topic order should follow the school, but the skill progression remains useful.

A Year 10 diagnostic session

Once each term, complete a short diagnostic containing:

  • five definitions
  • five calculations
  • one graph
  • one explanation
  • one practical-planning task
  • older topics as well as the current chapter

Classify the results by skill rather than only producing a percentage.

A student who loses most marks through units needs a different plan from a student who cannot explain the concepts, even when their total marks are similar.

How should parents monitor progress?

Ask for evidence rather than asking whether Physics is “okay.”

Useful questions include:

  • Which three syllabus outcomes are least secure?
  • Which error category occurred most this month?
  • Can you show one corrected question answered again without notes?
  • Are practical and graph skills being practised?
  • Has the Core or Extended recommendation been supported by marked evidence?

Avoid comparing one school test with a grade threshold from an unrelated examination series.

Signs that support may be needed

Consider additional help when:

  • the same misconception survives several corrections
  • school lessons rely on prerequisites the student does not have
  • equation rearrangement prevents progress across topics
  • practical and graph skills are consistently avoided
  • untaught or missed content is accumulating
  • the student cannot explain why an answer is wrong
  • study time is increasing without better independent performance

The response should be diagnostic, not automatically more hours of the same study method.

End-of-Year-10 checklist

Before Year 11, confirm that the student can:

  • use the current syllabus as a checklist
  • retrieve definitions and equations from taught topics
  • convert common units
  • rearrange equations
  • answer several question types per topic
  • draw and interpret common graphs
  • identify experimental variables
  • write specific limitations and improvements
  • correct and retry mistakes
  • explain whether Core or Extended is currently appropriate and why

Year 11 becomes much more manageable when these systems already exist. The next step is the Year 11 revision plan, which moves from topic security into mixed and timed examination practice.

Frequently Asked Questions

Should a Year 10 student start full IGCSE Physics past papers?
Usually not as the main study method before enough of the syllabus has been taught. Use topical questions, short mixed tests and practical-skills tasks first. Full papers become more useful once broad coverage is secure.
How many hours should a Year 10 student study Physics each week?
There is no universal number. Start with a sustainable routine that includes lesson review, retrieval, practice and correction. Increase time when evidence shows unresolved gaps rather than setting an arbitrary total.
When should Core or Extended be decided?
Use school guidance, current syllabus coverage, marked Core and Extended work, the student's target and the centre's entry deadline. Year 10 is often a good time to prepare broadly while collecting evidence.
Which Year 10 habit should students prioritise?
Correcting mistakes properly. Record the error type, relearn the missing idea and answer a similar question without notes after a delay.

Next useful steps

Need Help Applying This?

A 0625 specialist can work through the student's current paper or question and help identify whether the main difficulty is content, mathematics, practical reasoning or exam technique.