A Secondary 4 teenager taking 2027 SEC G2 Science (Physics, Chemistry), syllabus K223, should prepare for two connected sciences rather than treating Science as one large memory test. The official assessment uses Physics multiple-choice and structured questions, and Chemistry multiple-choice and structured questions, across two sessions. Parents can begin by checking which half of the subject loses more marks and whether the cause is scientific understanding, command words, calculations or interpreting an experiment. Work on the cause first. Several short corrections that the student can explain independently are more valuable than copying full-page answers.

The Singapore-Cambridge SEC begins in 2027, replacing the former GCE N(T), N(A) and O-Level certificate structure; the 2026 graduating cohort follows the earlier system. For K223, Physics contributes 50% and Chemistry 50%. The syllabus lists written multiple-choice and structured papers, with practical knowledge and experimental skills assessed through questions; it does not list a separate national practical paper for this G2 combination. Parents should still value laboratory experience conducted safely through school. The goal is to help the child explain observations with accurate science, handle unfamiliar data and approach examinations without panic.

• Check the correct combination: K223 is G2 Science (Physics, Chemistry); K224 and K225 cover different combinations.
• Understand the exam: Physics MCQ 20% and structured 30%; Chemistry MCQ 20% and structured 30%.
• Recognise the sessions: each science’s MCQ and structured papers are taken together in one 1-hour-15-minute session.
• Train three abilities: scientific knowledge, information handling and experimental reasoning.
• Use correct vocabulary: explain, describe, compare, predict, deduce and calculate demand different responses.
• Target high-impact gaps: measurement, graphs, particle theory, formulas and chemical processes.
• Correct methodically: repeat with a fresh question after understanding the error.
• Practise safely: laboratory methods belong under school supervision; avoid unsafe home chemistry experiments.
• Support wellbeing: protect sleep, predictable routines and a sensible study load.

SEC 2027 and the subject code that matters

The 2027 SEC consolidates national secondary examination certification while students continue to take individual subjects at G1, G2 or G3 levels. A teenager’s subject combination can mix levels. The parent should therefore read the actual school subject registration rather than assume that all subjects have one level because the child entered secondary school through a particular PSLE posting group.

The official G2 Science syllabus document covers three combinations. K223 is Physics and Chemistry; K224 is Physics and Biology; K225 is Chemistry and Biology. This article specifically addresses K223. If your child studies another combination, its content and papers are different; do not use the topic plan here as a complete checklist for that child.

Science at this level is not only about remembering textbook facts. The syllabus expects a student to understand scientific models, use observations and data, make inferences and handle practical situations. It may test familiar concepts in an unfamiliar context. That means a student who has memorised a perfect set of notes can still struggle when the question looks different from a worksheet.

The first useful family decision is to separate what is authoritative from what is suggested. SEAB’s published syllabus defines assessment requirements. The school’s timetable and teacher feedback define immediate classroom priorities. A home revision calendar is a tool to support these, not a rule that overrides them.

The exact K223 paper map without guesswork

For Physics, Paper 1 is a 20-mark multiple-choice component worth 20% of the combined Science assessment. Paper 2 is a 30-mark structured component worth 30%. They are taken together in one session of one hour and fifteen minutes. Candidates are advised not to spend more than thirty minutes on the multiple-choice part.

For Chemistry, Paper 3 is a 20-mark multiple-choice component worth 20%, and Paper 4 is a 30-mark structured component worth 30%. These are likewise taken together in a one-hour-fifteen-minute session. Students must practise switching from selecting an answer to producing an explanation, calculation or labelled response within the same sitting.

Each structured paper has compulsory Section A questions and a Section B choice. Section A carries 22 marks and includes an eight-mark final question. Section B carries 8 marks; candidates choose one of two structured questions. The choice instruction is easy to overlook when nervous, so it should be rehearsed. A student who tries to answer everything can waste time intended for the required responses.

The published K223 science assessment is therefore not a simple ‘one Physics paper plus one Chemistry paper’ formula. Understanding the four paper numbers, paired sessions, component weights and Section B selection can reduce anxiety because students know what to expect. Use the actual school-provided examination schedule for the date and venue; do not infer exact dates from the annual national examination window.

What scientific learning looks like beyond memorising facts

The syllabus distinguishes Knowledge with Understanding, Handling Information and Solving Problems, and Experimental Skills and Investigations. The approximate balance in the theory papers is 45% knowledge, 45% information handling/problem solving and 10% experimental skills. These are not three isolated piles of questions, but they show why a balanced routine is essential.

Knowledge includes correct definitions, principles, units, properties and processes. Information handling includes applying those ideas to a graph, unfamiliar scenario, calculation or data table. Experimental reasoning includes observing, drawing conclusions, commenting on methods and suggesting improvements. A student who knows definitions but cannot apply them should not spend the whole month reciting more definitions.

Parents can test understanding with one question: ‘How do you know?’ For instance, if a child says a reaction occurred, ask which observation supports that claim. If the child says an object is accelerating, ask what the graph indicates. The reason is more educationally valuable than merely repeating the correct phrase.

Use short explanations in ordinary language before tightening to accepted scientific terms. The final examination requires precise terminology, but children often need a conceptual bridge from familiar experiences to abstract descriptions. The learning sequence is observe, model, explain, check and then communicate.

Physics: organise the syllabus into connected ideas

The Physics component includes measurement, motion and mechanics, forces and energy, thermal phenomena, waves, electricity and radioactivity. These are not unrelated chapters. Physical quantities and units connect to nearly every calculation, while models help explain why an observed effect occurs.

Begin with measurement and quantities. A student needs to read scales, choose units and distinguish concepts such as mass and weight or speed and velocity. A large number of lost marks can arise before the ‘hard’ part of the question because the learner has not identified what is being measured.

In mechanics, train descriptions of motion using graphs and relationships. A distance-time graph does not communicate the same information as a speed-time graph. Students should learn to interpret slope, shape and area only as appropriate to the graph and syllabus. Encourage them to draw a rough sketch to make a word problem tangible.

Energy and thermal processes need explanation, not only arithmetic. Ask where energy is transferred, what changes and what remains consistent. In electricity, circuit questions benefit from labelled diagrams and careful distinction between current, voltage and resistance. Each unit should be tied to a physical idea rather than memorised as an arbitrary symbol.

The Physics syllabus also addresses wave properties, the electromagnetic spectrum and radioactivity. These topics can be unsettling when students see unfamiliar terms, but the same learning method works: name the quantity, explain the model, inspect the evidence and practise a relevant question. Do not substitute sensational science videos for the precise syllabus concepts.

Physics calculations: units are part of the answer

Many Physics calculations become manageable when the student names the quantities first. For example, speed is related to distance and time, but a correct numerical operation with incompatible units is still a flawed solution. Teach students to rewrite data consistently before substituting into a formula. This supports checking as well as calculation.

A useful four-line routine is: write the relationship, identify known and unknown quantities, substitute with consistent units, then evaluate and interpret the result. Some students find this slower initially. With practice it becomes a reliable structure, especially when the question is unfamiliar or the learner is anxious.

Encourage estimation. If a person walks a modest distance over several minutes, an answer implying an extraordinary speed deserves another look. Estimation is not the official final method; it is a way to detect arithmetic or conversion errors before they enter the answer box.

Link the child’s Mathematical preparation to Science preparation. Solving equations, reading graphs, working with ratios and applying units can support Physics. The G2 Mathematics SEC guide explains how parents can strengthen those underlying skills without adding random extra exercises.

Chemistry: learn particles, structure and change as a story

Chemistry becomes easier when the student sees a coherent story: what matter is made of, how particles are arranged, why substances have different properties and what changes during a reaction. The official syllabus includes particulate nature of matter, atomic structure, bonding, chemical calculations and other specified topics. Each new concept should connect to the earlier model.

The difference between an element, compound and mixture is foundational. Ask students to give examples and explain how the particle arrangements differ. The same understanding supports later questions about separation, bonding and the identity of substances. A memorised definition that cannot be applied to a diagram is not yet stable.

Ionic and covalent bonding require students to use accurate representations and relate structure to properties. Instead of immediately memorising every drawing, begin with the underlying electron-transfer or electron-sharing idea at the level required by the syllabus. Then practise dot-and-cross diagrams and interpretation of physical properties.

Chemical equations and calculations connect language to quantity. Students should understand what a symbol or formula represents, not merely manipulate numbers. When a calculation fails, check whether the error began in reading the chemical relationship, converting quantities or using arithmetic. These are distinguishable causes with different repairs.

Later topics such as acid-base chemistry, qualitative analysis, periodic patterns, organic chemistry and air quality benefit from the same chain: definition, observation, reason, example and application. Science becomes much less frightening when apparently separate facts can be traced back to a few explanatory models.

Chemistry questions about experiments, observations and evidence

Students often memorise that a certain test gives a certain result but struggle when an examiner asks why the result matters. Teach the relationship between observation and inference. ‘A gas was produced’ is an observation-level statement if bubbling is visible; identifying the gas requires appropriate evidence, such as a valid test and its result. The distinction prevents guesses dressed up as conclusions.

Qualitative-analysis questions require precision about experimental conditions and observations. Keep a clear table of the substance or test, what happens, and what can reasonably be inferred. Do not use an invented shortcut that collapses several reactions into a vague memory cue. Ask students to make the evidence chain explicit.

Charts, data and unfamiliar experimental set-ups should be approached calmly. First identify what was changed, what was measured and what remained controlled. Then describe the pattern before explaining it. Students often skip the observation and leap to a conclusion that the data do not support.

Parents should avoid trying to reproduce school chemistry experiments at home. Appropriate laboratory work requires equipment, supervision and safety procedures. Home revision can use diagrams, safe teacher-approved demonstrations, data tables and questions. Practical confidence is best built through supervised school activities and careful analysis of recorded observations.

Practical skills matter even without a separate national practical paper

The K223 scheme lists theory papers, not a standalone practical examination for this combination. That does not remove experimental science from the syllabus. The official document expects familiarity with laboratory methods and scientific reasoning; questions may ask students to interpret readings, choose apparatus, plot a graph, identify sources of error or suggest a safer or more reliable procedure.

In Physics, students should understand how measurements are made and how precision affects a result. In Chemistry, they should recognise appropriate methods for separation, analysis and data collection at the prescribed level. Practice with a diagram of an apparatus should include both the name and purpose of each component.

Teach the distinction between reliability, accuracy and precision rather than using these terms interchangeably. A method can produce repeated readings that agree closely while still being systematically wrong. Students need to learn which change would address which difficulty, and to connect the suggestion to the purpose of the experiment.

School laboratory work is a learning opportunity, not only a task to complete. Parents can ask what evidence was collected, whether the result matched the prediction and how the student would improve the method. This conversation strengthens scientific reasoning without the need for additional equipment.

Science command words: make the answer fit the instruction

A teenager may know the topic and still lose marks because the answer does not match the verb. ‘State’ often requires concise information, ‘describe’ requires an account of relevant features or changes, and ‘explain’ asks for the scientific reasoning behind an observation. ‘Compare’ requires a relationship between two cases rather than two disconnected descriptions.

‘Predict’ and ‘deduce’ ask students to use supplied information or principles to reach a reasonable conclusion. ‘Calculate’ requires method, units and a numerical result where appropriate. ‘Suggest’ may involve applying scientific principles to an unfamiliar case. The precise expectations depend on the question, so encourage the learner to read the whole prompt rather than act on a verb alone.

Create a one-page command-word bank using mistakes from schoolwork. Write an original weak answer beside a corrected answer and explain the difference. If a response merely repeats the observation when the question requires explanation, the student should learn to add a mechanism or relevant scientific relationship.

This is where eduKate’s emphasis on vocabulary and meaning becomes useful. Scientific language is not a competition for the longest term. A precise word, used in the correct relationship, can prevent a whole explanation from becoming ambiguous. See How Vocabulary Works for the wider language-to-understanding route.

How to correct multiple-choice questions properly

Multiple-choice practice can produce false confidence when students repeatedly choose an answer and then move on. Review why the chosen option is correct and why plausible alternatives fail. This distinguishes understanding from familiarity with one particular question. It can also identify a misconception that might reappear in the structured paper.

For each wrong choice, ask what feature attracted the student to it. Was it a familiar key word, a reversed relationship, an incorrect unit or an assumption not supported by the data? Write the corrected principle in one short sentence. A good correction does not simply circle the correct letter.

Occasionally ask the student to solve a multiple-choice question without seeing the options first. This tests whether the reasoning is strong enough to produce an answer rather than recognise one. When options are necessary because the task compares outcomes, discuss the differences deliberately.

Timing should be introduced after accuracy develops. K223’s paired sessions require the candidate to leave enough time for structured answers; SEAB advises no more than thirty minutes on each corresponding MCQ component. Short timed sets can reveal whether the student is overthinking individual questions or guessing too quickly.

How to handle structured questions and the Section B choice

Structured questions reward clear scientific reasoning. Train students to underline the actual quantity or relationship being asked, extract relevant information and answer in complete but economical form. When calculations are involved, show the formula and essential working. When explanations are involved, connect the observation to the correct principle.

Section A in each structured science paper has compulsory questions totalling 22 marks, including a longer final question. These should be practised in a range of contexts. Students should learn to continue even after one unfamiliar subpart, rather than abandoning all related marks because the first line looks difficult.

Section B offers two questions, and candidates must answer only one. Practise reading both choices before committing. Ask which question matches the student’s reliable knowledge and where an explanation or calculation might be incomplete. Do not choose based only on the first word or topic label.

Once a choice is made, the student needs to deliver the full answer to that selected question. Good revision includes short-choice drills as well as full-paper practice, especially for students whose main weakness is panic or misreading instructions rather than scientific content.

Turn a weak Science mark into a plan

Begin with two marked papers, preferably one emphasising Physics and one Chemistry. Allocate each lost mark to a meaningful category: wrong fact, misunderstood model, calculation, inaccurate scientific term, misread graph, experimental interpretation, time pressure or incomplete response. Look for patterns across several questions rather than reacting to one unfamiliar topic.

Choose the highest-impact pattern. If half the mistakes involve units and graphs, strengthen mathematical interpretation before asking the child to memorise another chapter. If the student repeatedly confuses atoms, ions and molecules, return to particle representations. If the student knows the content but leaves explanations vague, practise cause-and-effect sentence structure.

Use a correction sheet with four columns: question type, first wrong move, corrected explanation and new test question. Leave room for the next attempt. Parents can manage the record while the student supplies the reasoning. When the child can demonstrate the correction independently, the error becomes useful data rather than a source of shame.

Do not tell a student that one failed Chemistry test proves they are unsuitable for Science. Ask what evidence is actually available. The problem might be one prerequisite chapter, an unfamiliar calculation type or insufficient practice with structured answers. If school feedback suggests a wider difficulty, seek a more careful diagnostic discussion.

• Do not copy full model answers as a substitute for understanding.
• Retest a corrected principle using a new question after a delay.
• Separate Physics and Chemistry patterns before building one revision timetable.
• Use school feedback to decide which syllabus topics need priority.

A practical eight-week K223 preparation cycle

Week 1: map the paper components, check the K223 syllabus and run a gentle baseline. Use one small Physics set and one Chemistry set. Ask the learner which questions created uncertainty and compare that feeling with the marked evidence.

Week 2: rebuild measurement, graph reading and numerical operations used in Physics. Practise stating units and interpreting what a formula means. Stop after a manageable number of questions and allow time for correction.

Week 3: stabilise Chemistry foundations such as particle models, atomic structure and bonding. Use labelled diagrams and short explanations to connect representations to concepts. Test transfer using different substances or question wording.

Week 4: move into selected Physics relationships and contextual problems. Combine one numerical task, one explanation and one data-based question. Ask the student to make a prediction before calculating whenever the situation allows.

Week 5: develop Chemistry applications and experimental interpretation. Practise choosing appropriate apparatus, reading observations and explaining results. Use school-approved materials rather than unsupervised chemical demonstrations.

Week 6: train the official MCQ-to-structured transition for each science. Use timed mini-sessions, practise Section B selection and analyse where time is being lost. The goal is control of the paper’s demands rather than speed for its own sake.

Week 7: attempt representative exam-style sessions with realistic instructions, followed by a separate correction day. Look for patterns in fatigue, question reading, units and missing steps. Do not schedule back-to-back papers with no learning review.

Week 8: retest the earliest weak patterns, decide what is now stable and ask teachers for help with remaining unclear ideas. This cycle is a suggested teaching plan. Reorder it according to school prelim dates and the actual SEC timetable.

What a balanced Science week could look like

A Secondary 4 learner has several subjects and a limited attention budget. A balanced Science week might have a short Physics calculation session, a Chemistry explanation session, a mixed MCQ session, an experiment/data interpretation session and one correction session. These can be distributed around homework, school consultations and other responsibilities.

For example, Monday can be Physics units or graphs; Tuesday Chemistry concepts; Wednesday reading or rest; Thursday a structured explanation from one science; Friday a short multiple-choice set. The weekend can include an extended application question and the student’s own review. The exact minutes should be chosen with the student, not imposed by a generic online schedule.

Some weeks need more Physics; others need more Chemistry. The two halves contribute equally, but a student’s starting weaknesses may not be equal. Revise with enough attention to prevent one half from pulling down the combined result while protecting strong areas through occasional retrieval.

Parents should leave room for exercise, adequate sleep, meals and normal teenage relationships. A tired student may make errors in an otherwise familiar concept, which can lead adults to prescribe more study when the immediate issue is exhaustion. A sustainable routine is part of the learning system.

• One Physics concept-and-calculation session.
• One Chemistry structure-and-reaction session.
• One paired MCQ practice and review.
• One experiment or data-interpretation session.
• One spaced retest of errors, plus genuine rest.

Exam fear: how families can respond productively

Science can create anxiety because the syllabus includes many technical terms and diagrams. A child who says ‘I cannot remember anything’ may really mean ‘I cannot organise what I know under pressure’. Respond by selecting one concept map or one corrected question and asking the teenager to explain it. The aim is to restore a sense of reachable progress.

Do not describe a weak mark as laziness without examining the paper. A student who repeatedly uses a wrong particle model needs teaching, not accusation. One who abandons questions on seeing numerical information may need a slow reading-and-modelling routine. Parents can hold the child accountable for agreed practice while being honest about which support is required.

Help the student distinguish nervousness from a loss of all capability. Practise familiar routines, then gradually introduce unseen questions. Near examinations, avoid repeated public comparisons with friends’ marks or different G-level papers. The relevant question is how this teenager is improving in the required K223 skills.

If anxiety becomes severe or persistently affects sleep, attendance or daily functioning, speak with the school form teacher or counsellor and seek appropriate health support. Academic tuition should not be presented as the cure for all distress. A safe and steady adult response gives the child room to concentrate.

When Science tuition is useful and when it is not

School teaching and independent study are sufficient for many teenagers. Before adding tuition, review whether the child understands feedback, asks questions in class, can finish manageable home tasks and improves after correction. If all of these are happening, extra lessons may increase fatigue without providing a meaningful benefit.

Additional guidance is more justified when misconceptions persist, when the student cannot connect a scientific model to new examples, or when written answers repeatedly fail to communicate knowledge. Look for a tutor who can inspect actual student work and explain a specific repair plan. A long list of promised past papers is not the same as diagnostic teaching.

eduKate’s small-group approach, where the group size is three students, may be appropriate for some learners who benefit from close feedback and peer explanation. It is still one option among school consultations, teacher-directed revision, study partners and carefully selected independent resources. Parents should consider the child’s willingness, travel, cost and the effect on other SEC subjects.

If seeking help, bring recent Physics and Chemistry scripts, teacher comments, the school’s topic order and the official K223 syllabus. Ask what evidence will show that the plan is working after four to six weeks. Effective support produces more independent explanations, not merely a stack of marked worksheets.

The relationship between Science, Mathematics and English

Science is a subject of both quantitative reasoning and precise language. Physics calculations use algebra, units and graphs; Chemistry explanations require exact relationships between particles and observations. Students who understand the scientific idea may lose marks because the answer is too vague, while students with strong vocabulary may still need better conceptual models.

Help the child see these connections without turning every subject into the same lesson. When a Physics graph is difficult, revisit the relevant Mathematics skill. When a Chemistry answer is unclear, practise a short explanation with cause and consequence. This kind of focused cross-subject repair is more useful than assigning an entire unrelated worksheet.

The G2 Mathematics examination guide supports numerical and graph foundations. The G2 English guide addresses reading questions, vocabulary precision and communicating ideas. Science gains from these skills, but still requires its own factual and experimental knowledge.

Within eduKate’s wider knowledge ecosystem, Science can also lead beyond examinations into understanding technology, the environment, public health and everyday decisions. Use that curiosity to maintain motivation, but let the official syllabus define what is assessed in the national paper.

After school prelims: repair rather than panic

Preliminary examinations show how the teenager performs under the school’s extended assessment conditions. They are not a national certificate and should not be treated as an irreversible judgement. Analyse each science half and question type. A weaker MCQ result may indicate misconceptions; a weaker structured result may point to expression, calculation or time management.

After prelims, identify three recurring patterns that could realistically be improved before the national paper. One might be graph interpretation, another explaining chemical observations and the third choosing Section B questions. Give each a short targeted practice cycle and verify progress with unseen questions. Resist rewriting the entire year’s notes from the first page.

Students who have a strong understanding of one science but a weak understanding of the other need a lopsided recovery plan, not equal hours by habit. However, the strong science still requires occasional retrieval. A stable half of the paper can be protected while effort is directed to the gap that most limits the combined result.

After a difficult practice paper, discuss one thing that improved and one thing to change. The child should leave with a specific action. A long family discussion about disappointing marks often consumes time and confidence without adding a method.

Last month, last week and examination-day habits

During the final month, combine focused topic repair with representative paired paper sessions. Practise the MCQ-to-structured transition, the thirty-minute MCQ guidance, and the one-of-two Section B choice. Mark not only correctness but also where time is lost. Shorter exercises remain useful for weaknesses uncovered by full practice.

During the final week, review unit conventions, scientific definitions that the child has previously confused, common interpretation mistakes and the student’s own corrected examples. Check school and SEAB instructions for dates, identification, permitted materials and venue. Avoid guessing the ‘likely’ topics or buying an unfamiliar stack of last-minute resources.

During the last forty-eight hours, reduce intensity and protect rest. The student may rehearse one small set of familiar questions, read their correction notes and prepare materials. Parents should not initiate an argument about an old assessment. One well-slept student with a usable method is better prepared than a tired student who has memorised more pages but cannot apply them.

On the day, answer the question actually asked. When a data table or experiment looks unfamiliar, identify variables, observation and relevant scientific principles. The exam does not require every question to feel familiar; it requires the learner to use established knowledge in a new situation.

Frequently asked questions for parents

Is there a separate G2 SEC Science practical paper for K223? The 2027 K223 assessment scheme lists multiple-choice and structured theory papers, not a separate practical paper. Experimental knowledge is still assessed through relevant questions, and school laboratory experience matters.

Is every G2 Science student taking Physics and Chemistry? No. K223 is Physics/Chemistry; K224 is Physics/Biology and K225 is Chemistry/Biology. Confirm the student’s combination before planning revision.

Do Physics and Chemistry contribute equally? Yes for K223: Physics MCQ and structured total 50% and Chemistry MCQ and structured total 50%. A different combination must be checked against its own paper allocation.

Should a student memorise the entire science textbook? Knowledge matters, but understanding models, interpreting evidence, solving problems and using precise vocabulary are essential. Retrieval, explanation and new-question practice are more useful than copying notes repeatedly.

Are MCQs enough to improve the final grade? No. MCQ totals 40% across K223; structured answers total 60%. A balanced plan prepares both response types.

Can we conduct chemistry experiments in the kitchen to revise? Do not attempt unsafe or unsupervised chemical work. Use school laboratory teaching, supervised activities and safe representations or data questions.

What if the student is overwhelmed by two sciences? Diagnose each half separately, choose the highest-priority repair and schedule short, sustainable sessions. Seek teacher guidance if the starting point is unclear.

A seven-day starting agreement that parents and teenagers can keep

Day one: confirm K223 and identify recent marks. Day two: correct one Physics misconception using a diagram or calculation. Day three: correct one Chemistry explanation. Day four: practise a short MCQ set and explain why the wrong options are wrong. Day five: discuss an experimental or graph-based question. Day six: try a small mixed section and retest an earlier error. Day seven: review the evidence and rest.

Agree what counts as progress before starting. A child who can now explain the particle model, calculate with proper units or interpret a graph without prompting has made a measurable gain even if the final grade is not yet known. Keep the plan proportionate to other subjects and the student’s actual school schedule.

Parents can provide structure, encouragement and high standards without demanding instant mastery. The central message is practical: understand the phenomenon, use the appropriate model, check the evidence and communicate clearly. Repeating those steps steadily gives a teenager a way forward when the examination seems too large.

Official SEC science documents and eduKate learning links

The authoritative document for this subject is the SEAB 2027 G2 Science syllabus covering K223, K224 and K225. The official G2 syllabus index shows every subject code and the SEC introduction explains examination arrangements. Families should always check fresh school communications for candidate-specific instructions.

Within the eduKate ecosystem, parents can read the Science parent-learning pathway, together with the Mathematics and English companions. These guide explanation and revision decisions but do not supersede SEAB or the student’s school.