G1 Science Paper 1 in Singapore’s 2027 Secondary Education Certificate (SEC) is a computer-based e-Examination under syllabus K123. It lasts 1 hour 15 minutes, contains 50 marks and contributes 50% of the subject result. The examination is not only a multiple-choice test. It combines ordinary MCQs with selected-response tasks and questions involving videos, animations or interactive stimuli. Students need to understand scientific ideas about everyday machines, food and human health, then use evidence carefully. The most useful first step for a Punggol family is to identify whether the child understands the concept, misreads data or is unsure how to respond to digital question formats.

SEAB’s 2027 K123 Paper 1 has two sections. Section A: 40 marks, consisting of 30 multiple-choice questions (30 marks) and 2–5 selected-response questions (10 marks). Section B: 10 marks, consisting of 2–3 questions using selected-response, short-answer or structured responses with video, animation or interactive material. Possible formats include matching, checkboxes, drag-and-drop and fill-in-the-blank. All questions are compulsory. An approved calculator may be used. These are the requirements for the 2027 graduating cohort, not the exact format of every Secondary 1 school test or a guarantee about the examination a 2027 Secondary 1 entrant will sit several years later.

• 2027 code: SEC G1 Science K123, earlier reference 5148.
• Paper 1 mode: e-Examination answered on a computer.
• Duration: 75 minutes, 50 marks and 50% of the whole Science grade.
• Section A: 30 MCQs worth 30 marks and another 2–5 selected-response questions worth 10 marks.
• Section B: 2–3 questions worth 10 marks using video, animation or interactive stimuli.
• Question types: multiple choice, matching, checkbox, drag-and-drop, fill-in-the-blank, short-answer or structured response as prescribed.
• Topics: Machines Around Us (II), Food Matters and Our Body and Health (II).
• Scientific habits: observation versus inference, safety, measurement, reading graphs and using evidence.
• Calculator: approved calculator permitted in both K123 papers.
• Parent priority: confirm the child understands the process represented by a diagram before worrying about device speed.

What happens in the e-Examination?

Students answer questions through the approved computer-based examination environment. Some items may ask for a single option; others use checkboxes, matching, drag-and-drop, typed blanks or structured responses. Section B includes visual or interactive material so candidates must interpret a scientific process rather than merely recognise a printed picture. The exact interface and permitted navigation are governed by official examination instructions. An ordinary online quiz is useful practice but not a guaranteed replica of SEAB’s delivery system.

The key learning challenge remains scientific meaning. A child who clicks quickly but misunderstands what a sensor measures or what a graph shows will still select a wrong answer. A slower learner who reasons carefully may need appropriate device familiarisation, but memorising screen positions does not solve missing concepts. Parents should distinguish digital navigation skills from scientific knowledge and teach both at suitable levels, with school guidance for examination-day arrangements.

PG1 and G1 Science: what the labels mean

Posting Group 1 (PG1) concerns initial secondary admission under Full Subject-Based Banding; G1 is the level of the individual Science subject. Students may have different subject levels according to readiness and school arrangements. The 2027 K123 e-Examination is a graduating-cohort assessment, so the current Secondary 1 syllabus and school tests may follow a different sequence or digital format. Families should verify the child’s real class subject rather than assume national Paper 1 starts in the first week of secondary school.

A student may love practical demonstrations yet misunderstand graph questions. Another may have excellent Science vocabulary but confuse a real observation with an inference. These differences call for targeted teaching. The useful question is “Where does the chain of understanding first break?” rather than “How many more practice papers should this student do?” Well-designed small-group learning helps students develop an explanation they can apply to an unfamiliar case.

Paper 1 Section A: not just thirty MCQs

Section A totals 40 marks. The first portion comprises 30 multiple-choice questions carrying one mark each; the next portion has 2–5 selected-response tasks worth 10 marks in total. Those later items may require matching concepts, selecting several correct statements or arranging information appropriately. Students who practise only single-answer MCQs may be surprised by a format that requires more than one choice or a relationship between several pieces of information.

An effective practice set should separate the reasons a child loses marks. Are they missing the science concept, reading an option incompletely or failing to understand how many answers the format requires? The remedy depends on the failure. Read instructions carefully, especially words such as select all, match, drag, rank or fill. The number of choices in a home worksheet is not an official prediction of the national paper.

Paper 1 Section B: videos and interactive science

Section B is worth 10 marks and contains 2–3 tasks using videos, animations or other interactive stimuli. These may ask students to interpret movement, a process or an observed result. A student needs to identify what changes over time and distinguish what is directly shown from the explanation it suggests. Visual material should be treated as evidence, not decoration. The task may include short answers or structured responses as stated in the official syllabus.

Imagine a fictional animation of two machines moving objects at different rates. The learner might need to read how much distance each object travels in a fixed time, then decide which has a greater speed. The video provides observations; the calculation and interpretation come from science. The example is original practice, not a claim about a real examination item. Ask the child to narrate the observed change before applying a formula.

Observation versus inference: the core of Science

An observation is something seen, measured or recorded. An inference is a reasoned explanation drawn from evidence. If droplets appear on the outside of a chilled bottle, the droplets are an observation; explaining their formation through condensation is an inference based on scientific principles. A student should not claim the bottle leaked unless a leak was observed or supported by other evidence. This distinction matters even when a question shows a familiar image.

A short practice uses two columns: observations and interpretations. Give a safe photograph of ice melting or a supplied table of plant growth, then ask the child to write one item in each column. The aim is not to produce a long laboratory report. It is to make the difference visible and ensure the inference is proportional to the observation. An unsupported guess may sound scientific while still being incorrect.

The three syllabus contexts: one connected Science

The official 2027 K123 syllabus organises content into Machines Around Us (II), Food Matters, and Our Body and Health (II). These contexts help connect concepts to ordinary life rather than treat topics as unrelated facts. Machines includes energy, electricity, waves and force. Food covers growing food, food chemistry and safety. The body section considers staying healthy, digestion, breathing and blood circulation. Questions can use familiar objects and situations to test the principles.

A learner should avoid classifying an unfamiliar picture as beyond the syllabus simply because they have never seen that exact machine or food. The question may assess an ordinary scientific principle such as energy transfer, separation of mixtures or interpreting an observation. Students should identify the mechanism rather than rely entirely on memorised diagrams. That flexibility is especially useful when the e-examination presents dynamic material instead of a static textbook illustration.

Energy: changing form without disappearing

The conservation of energy means energy is not created or destroyed in an isolated system; it can be transferred or transformed. A moving object has kinetic energy, a raised object can have gravitational potential energy, and an electrical device can change electrical energy into light, sound or thermal energy. Everyday machines often have several outputs, some intended and others less useful. Students should describe the correct energy pathway for the given device.

Consider a fictional battery-powered light. Chemical potential energy associated with the battery becomes electrical energy in the circuit, then light and thermal energy from the lamp. A child who states that energy vanished when the lamp warmed up has missed a transformation. Ask them to draw a simple arrow diagram with named forms of energy. The point is understanding the pathway, not memorising every device’s exact efficiency.

Power: energy use over time

Power is the rate at which energy is transferred or converted, expressed as energy divided by time. If a hypothetical device transfers 100 joules in 20 seconds, its average power over the interval is 5 watts. The arithmetic is simple, but the units and relationship matter. A child should not confuse 100 joules, an amount of energy, with 5 watts, a rate. The Paper 1 question may include a table from which the needed quantities must be selected.

Students can practise reading a device’s stated power rating and discussing what it means without handling any electrical circuits. Actual energy consumption depends on operating time and use. A 20-watt lamp operating for five hours uses 100 watt-hours or 0.1 kWh under a constant-power assumption. The figures are invented for learning, not present household tariffs. Science becomes more useful when the student interprets the quantity rather than simply writes a number.

Electricity: series and parallel

The K123 syllabus covers series and parallel circuits, current, voltage and resistance, as well as practical implications for household devices. In a simple series arrangement, current is the same through components. Parallel branches share the potential difference across them, while current divides among branches according to the components. Students should read the supplied diagram and identify connection patterns rather than assume a circuit is series because it looks like a line on the page.

A paper diagram is sufficient for home practice. Ask the learner to trace possible current paths and label the power source, switch and lamp. Do not reproduce live electrical installations, alter household switches or improvise high-power experiments. School-supervised activities use approved apparatus and safety procedures. A student who can describe why household appliances are connected in parallel has learned a scientific mechanism without needing unsafe home wiring.

Electrical bills: correct units matter

The Science syllabus asks learners to recognise appliance ratings, relate electric power to current and voltage and calculate electricity cost when energy is measured in kilowatt-hours. Power is measured in watts or kilowatts; energy for a bill is commonly measured in kWh. If a fictional 1 kW appliance runs for two hours at constant power, it uses 2 kWh. That calculation is not a claim about the cost until a tariff is supplied.

A student who multiplies the watt rating by the number of days without converting units or checking hours can produce a misleading result. Ask what the original number represents and which period the appliance is used. Then verify the order of magnitude. Science and Mathematics meet here: correct arithmetic cannot repair a wrong interpretation of power and energy.

Waves: recognising amplitude, frequency and wavelength

The published K123 content includes wave generation through vibrations, transfer of energy, and the terms amplitude, frequency and wavelength. A waveform shown in an animation may make these ideas easier to distinguish. Amplitude relates to the size of the displacement from equilibrium; frequency to how often cycles occur; wavelength to the distance between corresponding points on a wave. Students should read the diagram’s labels before assuming which property has changed.

A simple sketch can show two waves of equal wavelength but different amplitudes, or equal amplitude but different frequencies. Ask the learner to name the difference and justify it from the drawing. The syllabus does not require the terms longitudinal and transverse for this particular description, so parents should not make more advanced vocabulary the first hurdle. The objective is correct interpretation of the relevant wave features.

Effects of force: shape, speed, direction and turning

A force can change an object’s shape, its state of rest or motion, speed, direction or turning behaviour. Students should describe which effect is observed in a given situation. If a ball changes direction after being kicked, the relevant evidence is not automatically an increase in its speed. A moving object might turn with little change to speed magnitude. A video stimulus can make these distinctions important because it may show motion over time.

Ask the child to describe a fictional bicycle slowing at a crossing or a door turning around its hinges. Identify the relevant force effect without calculating unnecessarily. The syllabus also covers average speed, acceleration in one direction and distance-time graphs. A student should know which quantity each relationship describes before using an approved calculator.

Distance-time graphs: what a flat line means

A distance-time graph can show how distance changes over time. A horizontal segment usually represents no change in the plotted distance during that interval, under the graph’s definition. A steeper straight segment may indicate a greater constant rate of change. Students should check the axes and units; a diagram can be misinterpreted if the horizontal axis is distance rather than time or if the graph shows displacement rather than cumulative distance.

For a fictional object travelling 40 metres in 10 seconds, the average speed is 4 m/s. If its distance then remains at 40 metres for another five seconds, it did not travel additional distance in that segment under the supplied graph. A child should explain the two intervals separately rather than divide the final distance by the first interval’s duration when the question asks about the whole journey.

Food production: science and environmental trade-offs

The Food Matters section includes plant-growth conditions, agricultural methods, production needs and environmental concerns. Plants require suitable resources and conditions for growth, and farmers may use different methods to manage crop yields and pests. Students should not assume that every technique has only benefits or only harms. A question may ask about the effect of excess fertiliser on water systems or why biological pest control can reduce reliance on chemical pesticides.

A short original case compares two fictional growing systems with different water or nutrient inputs. Ask which variable was changed and what outcome was measured. A claim about yield requires the relevant data. Similarly, a picture of a healthy plant does not prove a particular fertiliser caused its growth. The learner should distinguish a plausible mechanism from a verified comparison and recognise that environmental decisions involve trade-offs.

Separating mixtures: choose a method for the material

Food Chemistry includes dissolving, filtration, evaporation, distillation and paper chromatography. Different methods exploit different properties. Filtering tea leaves from prepared tea separates undissolved solid pieces from liquid; evaporation can remove solvent to leave a dissolved solid; distillation involves vaporisation and condensation to collect a component under suitable conditions. A learner should explain why the process fits the mixture rather than memorise a list of equipment names.

A useful safe question is whether ordinary filtration can remove dissolved salt from saltwater. It cannot separate the dissolved salt by simply straining the liquid through typical filter paper, because dissolved particles pass through with the solution. The student should explain the difference between undissolved solids and dissolved substances. Do not conduct boiling, distillation or chemical experiments at home without proper supervision; diagrams are sufficient for conceptual practice.

Acids and alkalis: indicator evidence

The syllabus covers the response of litmus and universal indicators to acids and alkalis, as well as pH measurements. Students should not infer a substance’s complete safety from its pH or indicator colour. A question may describe a change in colour and ask whether the tested liquid is acidic, neutral or alkaline under the given indicator. The accurate response depends on the reference indicator scale and the information provided.

Parents can use a teacher-approved chart rather than testing unknown household cleaners or food substances. Some chemicals are corrosive or may react dangerously when mixed. A student who understands how an indicator provides evidence does not need to handle unlabelled liquids. Good science includes knowing the limits of a measurement and respecting safety instructions.

Food safety: observation is not proof of safety

The K123 syllabus covers food spoilage, preservation and factors affecting the growth of microorganisms. The student should understand why suitable storage, hygiene and handling matter. Food that smells normal is not automatically safe, and a visible change does not establish the exact microorganism responsible. A question may ask how refrigeration, heating or other preservation methods reduce particular risks under specified conditions.

Families should not taste questionable food or cultivate unknown microbes as an informal experiment. Use diagrams, school materials and approved demonstrations. Ask the child to explain which part of a hypothetical food-handling process creates a risk and what safe action would address it. This teaches scientific reasoning and responsible behaviour rather than treating food safety as a memory game.

Staying healthy: science without stereotyping people

The Our Body and Health section covers healthy living, common risk factors and bodily processes. Students should distinguish general science education from personal medical diagnosis. A fictional scenario about diet or activity may ask what principles support well-being, but it does not provide enough information to judge a real classmate’s health from appearance. Health questions should be handled respectfully and based on relevant evidence.

The syllabus also introduces digestion, breathing and blood circulation. Ask learners to trace what happens to food or oxygen through the relevant organs and explain why each step matters. Some systems interact: oxygen taken into the lungs enters the blood for transport, while digested nutrients can be absorbed and carried through circulation. A clear pathway diagram often helps more than memorising disconnected body-part names.

Digestion: from food to useful substances

Digestion breaks down food into forms the body can absorb and use. Students learn the roles of relevant digestive organs and how nutrients are processed. A familiar misunderstanding is that food simply enters the stomach and instantly becomes energy. In reality, digestion, absorption and metabolism involve distinct processes. The educational task is to describe the pathway at the level specified by the syllabus.

A student might draw food moving through the mouth, oesophagus, stomach and intestines, then identify where absorption is important. Ask which statement describes physical movement, which concerns breaking down food, and which describes taking nutrients into the body. A thoughtful diagram with arrows and labels can reveal misunderstandings before an examination question does.

Breathing and blood circulation

Breathing brings air into and out of the lungs, where gas exchange supports the transfer of oxygen into the blood and carbon dioxide out of it. The circulatory system carries materials around the body. Students should not treat inhalation as equivalent to every step of oxygen transport. A Paper 1 item may use a diagram or animation to show how the lungs and blood system work together.

Ask the child to describe a simplified sequence: air enters the lungs, oxygen crosses into blood through gas exchange, and blood carries it to tissues. The student should identify which step is being shown and what additional information a diagram does not provide. A generic animated clip cannot diagnose a person’s lungs or blood condition; keep health education distinct from clinical judgments.

Matching tasks: connect concept and consequence

A selected-response matching item may ask learners to pair scientific concepts with appropriate examples, diagrams or explanations. This format rewards recognising a relationship rather than choosing one familiar word. Before dragging items or selecting a match, identify the role of each candidate. A change in energy form, a food-separation technique and a digestive-organ function are different kinds of connection.

For practice, create two short lists: “filtration,” “evaporation,” “condensation,” and simple descriptions of their functions. The student matches them, then explains why an incorrect match is wrong. The explanation is the teaching step. A learner who can complete the exact same matching sheet through memorisation but cannot explain a new example needs further conceptual practice.

Checkbox questions: read how many responses are needed

Some digital selected-response items may require more than one selection. Students should follow the on-screen instruction and evaluate each option independently. If the question says select two, choosing one true statement is incomplete. If it says select all correct statements, the learner should consider every option rather than stop at the first plausible answer. The official syllabus lists checkbox tasks among the possible formats, but it does not promise the same number in each examination sitting.

An original practice set can present five statements about series and parallel circuits, some correct and some incorrect. Ask the student to justify each choice in words before submitting. This develops scientific understanding and careful digital task reading simultaneously. The goal is not merely learning where to click a box.

Drag-and-drop questions and scientific sequences

A drag-and-drop task can assess whether a learner recognises relationships or order. An animation of the digestive process might be accompanied by labels that must be placed accurately, or a conceptual energy diagram may require the correct forms in the right positions. Students should first identify the process and its direction before moving any options. Random dragging can hide a conceptual error.

A safe practice uses paper cards for the stages of a simple science process, then repeats the same idea on a school-supported digital platform. If the student can arrange and explain the stages without hints, the learning is transferable. Do not assume every examination uses the same draggable symbols or screen layout. Follow actual SEAB and school instructions for the national interface.

Videos and animation: describe change before explaining it

Motion on a screen can make a scientific process seem obvious, but students may still misinterpret what the visual proves. A video of a ball slowing can show decreasing speed, while the cause may require information about forces and conditions. A student should separate observation from explanation and note which measurement or variable the question supplies. When the stimulus pauses or shows multiple stages, the sequence matters.

A useful practice asks “What changed first?” and “Which fact supports your explanation?” after an original educational animation. Then alter one condition in a new diagram and see if the learner revises the conclusion. This builds evidence-based thinking rather than passive viewing. The computer is a presentation medium; the scientific method still governs the answer.

Data, graphs and units in Paper 1

Although Paper 2 contains a named data-response question, Paper 1 can also assess the ability to process information from diagrams, tables, data and interactive stimuli. Students should check labels, scales and units. A temperature graph is not automatically a distance-time graph, and a reading of 12 without its unit cannot be interpreted accurately. Missing the axis title may invalidate an otherwise correct calculation.

If a fictional graph shows an object’s distance as 0 metres at 0 seconds and 20 metres at 5 seconds under a straight-line relationship, its average speed for that interval is 4 m/s. Ask the child what the plotted quantities mean before dividing. Then show a new graph with different axes. The goal is choosing the relationship rather than repeatedly entering the same calculation.

Why experimental skills appear without a separate practical paper

Science is experimental, and the 2027 syllabus expects practical experiences as part of learning. However, the published national assessment comprises Paper 1 e-Examination and Paper 2 written questions, not a separately listed practical examination. Skills such as choosing apparatus, reading a scale, evaluating a fair test or identifying safety precautions can appear through the two papers. Parents should not conclude that experiments are unimportant simply because the examination is not a third hands-on paper.

Practical work belongs under school rules, appropriate equipment and trained supervision. A child does not need to handle household mains wiring, unknown chemicals, hot apparatus or biological samples to practise reasoning about variables and observations. Teacher-approved activities and data interpretation can develop the same habits safely. The examination may test the ability to analyse an experiment even when the candidate does not perform it during the paper.

Knowledge and application: the 60/40 balance

Across K123 Paper 1 and Paper 2, the 2027 assessment objectives allocate approximately 60% to knowledge with understanding, of which roughly one-third is recall, and around 40% to handling and applying information. These are approximate overall objectives, not fixed individual-paper mark counts. The distinction matters because memorising facts without being able to use them is insufficient, as is attempting unfamiliar contexts without knowing the underlying science.

A sensible lesson moves from the concept to a familiar example and then an unseen one. If a child learns the meaning of filtration, ask how the idea applies to removing tea leaves, then why it cannot remove dissolved salt. The student must explain the material property and mechanism. This is more durable than simply circling “filtration” on a familiar worksheet.

Time management in a 75-minute computer examination

An e-Examination can introduce additional cognitive demands: reading on screen, selecting the appropriate type of response, checking the question and managing time. But the correct method is not to rush every MCQ. Students should read the task, identify relevant science, consider options and check the answer before moving on. If they are uncertain, the permitted navigation and review arrangements are determined by the official interface, not assumptions about an ordinary website.

At home, use short timed practice only after the learner understands the question formats. Record both accuracy and completion. If clicking speed rises while errors increase, that is not progress. A child who repeatedly misreads “select all” needs instruction reading, while one who cannot explain energy transfer needs science teaching. Accurate diagnosis prevents technology from distracting from learning.

A four-week G1 Science Paper 1 learning plan

Week 1: diagnose understanding of everyday energy, electricity, waves and forces using diagrams. Week 2: practise food production, mixture separation, acids and food safety through safe source analysis. Week 3: review body processes and simple data interpretation, then attempt varied selected-response formats. Week 4: complete an original integrated e-question set suited to the child’s school level, and compare independent performance to the starting point.

A new Secondary 1 student may not yet have encountered all graduating content; adjust difficulty to current school teaching. If the child’s main difficulty is computer navigation, a short school-approved digital practice may help. If scientific concepts are missing, return to clear explanations rather than increasing screen time. End each week with an unfamiliar case that can be solved independently.

Three students: different reasons a digital question goes wrong

Alicia knows the names of energy forms but chooses the wrong conversion sequence; her tutor draws a causal pathway before revisiting the options. Kai Kai understands the science but ignores the instruction to select multiple correct statements; he practises reading the required response format. Mira can click quickly but mistakes a measurement unit on a graph; her teacher teaches axis-reading and reasonableness checks. These errors demand different interventions.

Each student should explain a corrected concept in their own words and apply it to a new task. A repeated score on the same worksheet may only measure familiarity. Independent performance on changed stimuli is stronger evidence of understanding. In small-group tuition, the teacher can compare explanations while still giving each child the appropriate next step.

How Punggol families can help without unsafe experiments

Science is everywhere in daily life: energy use, safe food handling, moving objects and the human body’s needs. A parent may ask how a bicycle slows, why a lamp warms up or what information a food label communicates. Such discussion does not require improvising electrical circuits or handling hazardous materials. Choose safe observation and official education resources, and ask the child what the evidence actually shows.

Families should be careful with health-related discussions. The goal is to understand general biology, not diagnose a real person’s medical condition from a school worksheet. Equally, a household energy question should use fictional values unless a real bill and its current terms are accurately understood. Science learning should increase independent judgment and safety, not anxiety or overconfidence.

When small-group Science support is useful

eduKate offers small-group tuition in Punggol through its available Science programmes. A tutor may be able to distinguish a missing scientific concept, question-reading problem, weak measurement skill or unfamiliar digital task type. The best instruction teaches the first missing principle and checks a new problem. Parents should confirm the student’s subject level and the actual offered class, rather than assume a generic “SEC Paper 1” preparation package fits every year.

Some students progress well with teacher feedback and short independent revision. A low practice mark need not be met with a larger stack of online quizzes. Ask which wrong answer reveals a misunderstood scientific principle and which reflects a reading slip. Effective support makes the scientific reasoning visible and reduces dependence on recognising familiar screen layouts.

2027 K123 Paper 1 versus Paper 2

Feature	Paper 1	Paper 2
Format	Computer e-Examination	Written short and structured responses
Duration	1 hour 15 minutes	1 hour
Marks / weight	50 / 50%	50 / 50%
Special feature	MCQ, selected response, video/interactive tasks	One 8–12-mark data-response question
Calculator	Approved calculator allowed	Approved calculator allowed

Frequently asked questions

Is 2027 G1 Science Paper 1 computer-based?

Yes. It is an e-Examination answered on a computer.

How much is Paper 1 worth?

50 marks, one hour fifteen minutes and 50% of the subject.

Is it just multiple choice?

No. It includes multiple choice, selected-response tasks, and a second section with short or structured answers and multimedia stimuli.

How many MCQs?

Thirty one-mark multiple-choice questions in Section A.

How many other Section A questions?

Two to five selected-response questions carrying 10 marks in total.

What is Section B?

Two to three selected-response, short-answer or structured questions worth 10 marks using video, animation or interactive stimuli.

Can answers involve drag and drop?

Yes. The syllabus lists matching, checkbox, drag-and-drop and fill-in-the-blank among possible selected responses.

Can a calculator be used?

An approved calculator is permitted in both G1 Science papers.

Is there a separately listed practical examination?

No. The 2027 K123 scheme has two examination papers; experimental skills can be assessed within questions.

Does the entire syllabus concern Machines Around Us?

No. It also covers Food Matters and Our Body and Health.

Can I reproduce experiments at home?

Avoid unsafe electrical, chemical, heating and biological experiments; use teacher-approved materials and supervised school practical activities.

Does a Secondary 1 student need the exact 2027 paper?

Not by default. This is the graduating 2027 national syllabus. Use current school content and the correct later cohort requirements.

What is a useful five-minute practice?

Show one simple scientific diagram and ask for an observation, an inference and the evidence connecting them.

Official sources and useful next reading

• SEAB/MOE: official 2027 G1 Science K123 syllabus PDF, assessment page 7
• SEAB: 2027 G1 school-candidate subject list
• G1 Science overview: scientific enquiry, safety and subject options
• How PG1 Works: G1 Science K123 examination information

Parent takeaway: ask the learner what a diagram or animation actually shows, which scientific principle explains it and how the chosen answer follows from evidence. That is the skill behind Paper 1, whether the response is a click, checkbox or short sentence.

Continue with the connected guide: What happens in Full Subject Based Banding | FullSBB Life 2027 Complete Parent Guide and Topic Hub. Use its linked index to compare the related questions and choose your next reading.