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PG1, PG2 and PG3 Design and Technology | Common D&T, G1/G2/G3 SEC, Electronics and Electrical Skills

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by

eduKate Asia
Three students sit around open books and worksheets at a classroom table, reading, writing and discussing the work together.

What does PG1, PG2 or PG3 mean for Design and Technology in secondary school? Posting Groups are used for entry to Secondary 1. The shared lower-secondary Design and Technology (D&T) curriculum is taught in mixed form classes, while upper-secondary D&T has distinct G1, G2 and G3 SEC examination syllabuses.

For the 2027 Singapore–Cambridge Secondary Education Certificate, D&T is G1 K124, G2 K234 and G3 K345. Related subjects include G3 Electronics K353, G1 Smart Electrical Technology K131 and G3 Design Studies K376, but these are separate qualifications with different content and formal conditions. A school maker activity may teach aspects of several areas without being an examination entry for all of them.

This friendly guide explores how students identify a user need, sketch ideas, choose materials, test a prototype, reason about circuits and make responsible technical choices. The goal is not to rank students or subjects, but to help families understand what is actually offered and how capable, curious learners improve.

Independent eduKateSG family guide. Official SEAB 2027 G1, G2 and G3 catalogues checked 16 October 2026. School subject offerings, safety arrangements, assessed work and applied-subject final-year notices should be verified with the relevant authority.

D&T and Electronics: the quick distinction

  • PG1/PG2/PG3: Secondary 1 posting groups.
  • Common lower-secondary D&T: shared lessons for mixed form classes.
  • G1 D&T: 2027 SEC K124.
  • G2 D&T: 2027 SEC K234.
  • G3 D&T: 2027 SEC K345.
  • G3 Electronics: K353, a different examined subject.
  • G1 Smart Electrical Technology: K131 MOE–ITE Applied Subject, approved schools, final examination year 2027.
  • G3 Design Studies: K376, separate approved-school Applied Subject with 2028 final-year notice.

Read the relevant chapter

1. The first difference is between Posting Group and subject

PG1, PG2 and PG3 help place students in Secondary 1. A formal school subject has its own curriculum and, if nationally examined, its own G1, G2 or G3 SEC syllabus. Design interests do not belong to a Posting Group.

Imagine this: One learner who entered via PG1 enjoys designing useful objects, while another who entered through PG3 enjoys the same school maker activity. Their interests need no ranking.

What helps: Begin with the actual timetable and subject offer. Ask whether the activity is lower-secondary Common Curriculum or a registered upper-secondary examination.

Important distinction: A Posting Group does not name a national D&T, Electronics or Smart Electrical Technology examination.

2. Common D&T is shared lower-secondary learning

Design and Technology is one of the six Common Curriculum subjects taught in mixed lower-secondary form classes under Full Subject-Based Banding. Students develop ideas and skills together rather than studying three separate common versions.

Imagine this: Classmates from different Posting Groups can design storage solutions, discuss user needs and compare alternatives during the same common lesson.

What helps: Ask what problem the learner was trying to solve and what changed after testing.

Important distinction: Shared lower-secondary D&T is different from national G1, G2 and G3 D&T examinations taken by eligible upper-secondary candidates.

3. Three nationally examined D&T levels exist

SEAB’s 2027 SEC catalogues list Design and Technology at G1 K124, G2 K234 and G3 K345. The official entries are distinct and should be followed separately.

Imagine this: A learner may have a G2 D&T examination guide, while a friend studies G3 D&T with a different syllabus and assessment structure.

What helps: Write down the correct level and code before collecting school examination resources.

Important distinction: A similar design theme does not make the three papers identical, and a school need not offer every level.

4. Why the subject name matters

Several examined and non-examined subjects involve technology. D&T, Electronics, Smart Electrical Technology, Computing and Design Studies are related but separately listed.

Imagine this: A smart lamp prototype could involve enclosure design, a sensor circuit and code. One activity might teach several concepts without becoming three national examination entries.

What helps: Ask which exact competency is being assessed: design process, circuit operation, program logic or user research.

Important distinction: The presence of a microcontroller or prototype does not automatically identify the student’s SEC subject.

5. PG1 students and the joy of making

Students admitted through PG1 share D&T lessons with mixed form classmates and can develop capability in sketching, problem identification, testing and communicating design decisions.

Imagine this: A learner who initially finds algebra demanding may be highly observant about how a product is used. That interest can also motivate clearer mathematical explanations.

What helps: Encourage one small, teacher-approved design task with a clear purpose and a recorded improvement.

Important distinction: Creative strengths have educational value in their own right; they should not be described as compensation for an admission category.

6. PG2 students and flexible subject study

PG2 generally describes a starting level for most academic subjects. Eligible later subject-level arrangements may vary under Full SBB, so the actual D&T offer matters more than the original group.

Imagine this: A learner might take English at one G-level and D&T at another under an approved school programme.

What helps: Check the subject-specific offer, school requirements and current marked work rather than assuming all levels are identical.

Important distinction: Taking D&T at G2 does not determine the level of Mathematics, English or another elective.

7. PG3 students and design choices

PG3 usually means most initial academic subjects begin at G3. Upper-secondary D&T remains a specific option under the school’s combination rules, not a universal requirement.

Imagine this: One learner loves Physics and wants to study mechanisms, while another prefers Literature or Art as an elective. Both can enjoy lower-secondary D&T.

What helps: Compare real assessed tasks and the weekly workload before choosing any upper-secondary option.

Important distinction: Do not imply that PG3 automatically includes G3 Electronics, Design Studies or all forms of technical learning.

8. G1 D&T is K124 in 2027

SEAB lists the examined G1 Design and Technology syllabus as K124 for the inaugural 2027 SEC. It has its own defined curriculum and assessment.

Imagine this: A learner may be able to explain the purpose of a simple product but need help sketching how a particular feature addresses the user’s need.

What helps: Use the G1 syllabus and teacher-approved project examples for relevant practice.

Important distinction: A practical design task should be understood on its own terms; it is not a shortened G3 paper.

9. G2 D&T is K234 in 2027

G2 Design and Technology is listed under K234. Schools may teach design concepts across levels, but assessed demands must be checked in the relevant document.

Imagine this: A student creates a model and can describe it clearly, yet still needs practice evaluating how it meets multiple requirements.

What helps: Ask the learner to compare the output with the design brief and identify a specific revision.

Important distinction: A G2 result is not automatically a G3 qualification merely because the learner demonstrates skill in one shared topic.

10. G3 D&T is K345 in 2027

G3 Design and Technology appears under K345, separate from G3 Design Studies K376 and G3 Electronics K353.

Imagine this: One student studies product design and related technology at G3, while another is enrolled in a different practical or scientific elective.

What helps: Use the formal subject name, code and current syllabus to plan revision and school project milestones.

Important distinction: Do not confuse the SEC K345 examination with the school’s general maker club or design-focused ALP.

11. Define the user before proposing a solution

D&T begins with understanding a need. A design that looks impressive may fail if it solves the wrong problem or ignores what its intended user can do.

Imagine this: A student designs a bottle holder for a bicycle but overlooks how the user needs to remove the bottle safely.

What helps: Ask who uses the product, where it is used and what successful use would look like.

Important distinction: A product is not useful solely because it is colourful or complicated.

12. Design briefs give meaning to constraints

A design brief describes the purpose and may set limits on cost, time, materials, dimensions or safe use. These constraints help students make defensible decisions.

Imagine this: A desk organiser must fit within a narrow space and hold several different objects. The available dimensions affect every proposed layout.

What helps: List the mandatory constraints separately from features that are merely attractive.

Important distinction: Ignoring a requirement does not make the design more original; it may make it unsuitable.

13. Research should influence the next sketch

Investigating an existing solution is useful only when students can explain what it teaches about the problem. Pictures and advertisements provide starting points, not automatic evidence of suitability.

Imagine this: A learner gathers photographs of different chair designs but only learns something actionable after comparing stability, storage and accessibility.

What helps: Ask what specific insight each example provides and how that insight changes the proposed design.

Important distinction: Copying a product without explanation or acknowledgement is not an appropriate replacement for original learning.

14. Sketching helps organise thought

A sketch lets students explore form, placement and movement before building a model. Labels and annotations can explain the purpose of a feature.

Imagine this: A student draws two possible handle positions and notices that one interferes with opening a lid.

What helps: Keep sketches simple enough to revise and label the decision each one is testing.

Important distinction: A highly polished drawing can still communicate less useful information than a clear annotated sketch.

15. Alternative designs create real comparisons

Comparing distinct proposals helps students understand trade-offs. A first idea is a hypothesis about what might work, not a reason to stop exploring.

Imagine this: A product can be foldable or fixed. Both may serve the task but impose different storage and strength requirements.

What helps: Compare at least two genuinely different options using the same decision criteria.

Important distinction: Changing only the colour of two otherwise identical drawings is not the same as comparing mechanisms or usability.

16. Prototype testing produces evidence

A prototype can reveal whether a feature works for an intended purpose. Testing may uncover limitations that were not obvious from a sketch.

Imagine this: A cardboard model tips over when the intended object is placed on it, showing that balance needs attention.

What helps: Predict the result, test under safe school conditions and record what actually happened.

Important distinction: One successful test is not proof that a product will work reliably in every situation.

17. Feedback should improve a design

Good feedback identifies how the product can work better for its intended user. Students benefit from translating criticism into a specific change rather than defending every early decision.

Imagine this: A peer cannot distinguish two buttons on a mock interface. Increasing the difference between the controls may improve usability.

What helps: Ask what the learner learned from feedback and how they will check the next version.

Important distinction: A design is not automatically better just because the student added more features after receiving a comment.

18. Evidence-based evaluation is learnable

Evaluation compares the final or developing solution with the original criteria. The most useful conclusion names strengths, limitations and a realistic improvement.

Imagine this: A storage system holds the required objects but takes too long to access during a hurried school day.

What helps: Write one observation for each main criterion and keep the conclusion proportional to the evidence.

Important distinction: Saying the project was successful because it looks good is not a complete evaluation.

19. Materials have properties and constraints

D&T can help learners compare the properties of materials and select one suitable for a purpose. Strength, flexibility, finish, cost and safe handling may all matter.

Imagine this: A student chooses thin card for a structure expected to hold a heavy book, and the model bends under load.

What helps: Discuss what the material must do before discussing what colour or texture it should have.

Important distinction: This article does not authorise unsupervised use of cutting tools, adhesives or equipment.

20. Structures require stable thinking

Structures must support loads under the conditions for which they are designed. Students may explore how geometry and connections influence stability using safe models.

Imagine this: A tower built with equal materials stands longer when its base is wider and its connections are more stable.

What helps: Use supervised model tests and record the load and conditions rather than guessing why a structure changed.

Important distinction: A classroom scale model should not be treated as an engineer-approved construction plan.

21. Mechanisms transform or transmit movement

Mechanisms can change the direction, speed or type of movement in a device. Understanding an input and output helps students explain purpose rather than merely name parts.

Imagine this: A crank produces rotation that causes another component to move along a guide. The learner can identify what changes in the system.

What helps: Draw the input, connected parts and output and explain their relationship.

Important distinction: A moving component does not automatically mean every part of a model is functioning safely or efficiently.

22. Electronics adds circuit reasoning

Electronic systems involve components, connections, power and signals. They can contribute to a product’s function, but circuit behaviour must be understood from the actual arrangement.

Imagine this: A light sensor controls a simulated indicator, but the output changes in the opposite direction from the learner’s guess.

What helps: Read the circuit diagram and identify what is measured before predicting the result.

Important distinction: Never infer a universal sensor-output direction without knowing the circuit arrangement.

23. G3 Electronics has its own SEC code

SEAB lists Electronics at G3 under K353 for 2027. It is separate from D&T K345, Computing K349 and G1 Smart Electrical Technology K131.

Imagine this: A student studying G3 Electronics may encounter voltage-divider and logic ideas even though another class studies electronic devices during D&T.

What helps: Use the K353 syllabus, current school lessons and safely supervised practicals.

Important distinction: G3 Electronics is not automatically offered by every school and should not be assumed from a robotics club listing.

24. G1 Smart Electrical Technology has a different status

The MOE–ITE Applied Subject Smart Electrical Technology is listed as G1 K131 for 2027, only at approved schools. SEAB also states 2027 is the last examination year for the listed G1 MOE–ITE Applied Subjects.

Imagine this: A family sees K131 on an old school brochure and assumes a student entering Secondary 1 in 2027 can sit it years later.

What helps: Ask the school what is currently offered to the child’s cohort, and check the final-examination notice.

Important distinction: K131 is not a renamed G3 Electronics course, and its future availability cannot be presumed.

25. G1 Mobile Robotics is another applied route

MOE–ITE Mobile Robotics K130 appears separately at G1 in 2027, subject to approved-school arrangements and the same final-year notice.

Imagine this: A robotic device combines movement, sensors and program logic, but K130 remains a distinct examined Applied Subject where offered.

What helps: Find the real syllabus and school registration process before selecting outside materials.

Important distinction: A toy robot project or ALP workshop is not proof that the student is registered for K130.

26. Design Studies is not the same as D&T

G3 Design Studies K376 is a separately listed SEC Applied Subject, with approved-school restrictions and a SEAB notice that 2028 is its final examination year.

Imagine this: A student might enjoy spatial, exhibition or visual communication work more than the product and mechanism focus of another course.

What helps: Compare real projects and the formal assessment requirements before deciding which design-related option fits.

Important distinction: K376 and D&T K345 are not interchangeable titles or qualifications.

27. Computing is not the same as Electronics

Computing deals with digital information, algorithms and software. Electronics deals with electrical circuits and system behaviour. They can meet in one project without becoming one subject.

Imagine this: A controller reads a sensor and follows a program. The sensor circuit and the code require different explanations.

What helps: Ask which part of the problem needs software logic and which part needs circuit interpretation.

Important distinction: Being comfortable with Python does not automatically establish that a learner understands electrical safety or analogue signal behaviour.

28. Voltage needs a reference point

Voltage is measured between points in a circuit. Students should identify the measurement points before claiming that a sensor makes a voltage rise or fall.

Imagine this: A simple voltage divider places a sensor above a fixed resistor, then swaps their positions; the output behaviour can change.

What helps: Label the supply, components and output node in a teacher-provided diagram before calculating a relationship.

Important distinction: Do not perform experiments on household mains wiring or opened appliances.

29. Resistance changes depend on components

Some sensors change resistance with temperature, light or other factors. The effect on a measured circuit output depends on how those components are connected.

Imagine this: An illustrative light-dependent resistor changes its resistance under different light conditions, but the resulting output must be determined from the circuit.

What helps: Use approved low-voltage simulations and explain which variable was changed.

Important distinction: Sensor response should not be described from memory without identifying the actual device and arrangement.

30. AND, OR and NOT encode different rules

Logic operations can express how an electronic or computational system responds to conditions. Understanding the precise rule helps students make reliable predictions.

Imagine this: An indicator should turn on only when both a door is open and a safety condition holds. An OR condition would behave differently.

What helps: Write a small truth table to show what the system does for each possible condition.

Important distinction: A rule that sounds similar in ordinary language may lead to different circuit or program outputs.

31. Measurement units stop misleading answers

Design dimensions, currents, voltages, masses and quantities need appropriate units. Accurate calculations begin with identifying what each number represents.

Imagine this: A student writes that a part is five without specifying millimetres or centimetres, creating a design that cannot be evaluated clearly.

What helps: Keep units beside measurements and check consistency before substituting into a formula.

Important distinction: A calculator display cannot tell the learner which physical quantity was intended.

32. Mathematics is a powerful design tool

Ratios, scale, geometry, algebra and graph reading help students represent a design and evaluate how it performs. These skills connect with the actual Mathematics syllabus.

Imagine this: A learner constructs a scale drawing but enlarges one dimension by a different ratio, making the model inaccurate.

What helps: Compare the drawing’s measurements with the stated scale and explain each conversion.

Important distinction: More advanced algebra is not automatically necessary; a correct foundational proportion may solve the task.

33. English makes technical work understandable

A project brief, process record or written examination question requires careful reading. Precise language helps students identify the problem and justify a decision.

Imagine this: A report says a prototype became better but does not state whether it is stronger, safer or easier to use.

What helps: Ask the learner to name the criterion, observation and consequence in plain language.

Important distinction: Technical jargon does not rescue an explanation that ignores the actual task.

34. Science helps students understand causes

Physical principles such as force, energy and electrical behaviour can help explain why a product functions as it does. Students should still distinguish the design objective from the scientific model.

Imagine this: A lever makes a task feel easier, and the learner links that result to the arrangement rather than merely saying the device works.

What helps: Use safe diagrams and school-provided measurements to connect cause and observation.

Important distinction: An impressive prototype does not prove a scientific explanation without supporting evidence.

35. Cost and sustainability matter in design

Materials, durability, maintenance and waste can influence which solution is practical. Students learn to compare these factors rather than choose by one attractive feature.

Imagine this: A reusable organiser costs more initially but is durable; a cheaper alternative wears out quickly under the intended use.

What helps: Set a simple comparison table for intended life, material use, cost and ease of repair.

Important distinction: A product described as green is not automatically the lowest-impact option in every context.

36. Accessibility broadens the design question

A product should be understandable and usable by intended users with varying needs. Accessibility can influence shape, contrast, grip and instructions.

Imagine this: A small control is difficult for a user with limited fine-motor control, making the interface less practical.

What helps: Invite a teacher-supervised usability discussion and identify what feature could make operation clearer.

Important distinction: Do not design solely from assumptions about another person’s abilities; seek appropriate user evidence.

37. Sketches and models need honest documentation

Where formal coursework applies, the student’s investigation, drafts and decisions should be documented according to school rules. Authenticity is part of reliable assessment.

Imagine this: A learner records why a prototype failed rather than hiding the first version because it looks imperfect.

What helps: Keep genuine evidence of thought and follow the permitted school feedback process.

Important distinction: Parents, tutors and AI must not create replacement assessed project work that misrepresents the student’s own effort.

38. Laboratory and workshop safety is essential

School workshops use controlled procedures, supervision and appropriate equipment. Students need to understand hazards before attempting physical construction or electronic testing.

Imagine this: An online tutorial recommends soldering a circuit at home without safe equipment or adult supervision. That is not suitable general examination advice.

What helps: Use teacher-approved low-voltage simulations and supervised workshops, and follow school safety requirements.

Important distinction: Never work on mains circuits, unknown power supplies, sharp machinery or chemical processes independently for this guide.

39. Different school programmes can share the same theme

A school ALP may feature coding, maker activities or sustainability projects while the formal SEC subject combination does not include Electronics or D&T. Both may offer valuable learning.

Imagine this: A student builds a robot in a club but prepares for SEC Geography as an examined elective.

What helps: Ask whether each activity is a common lesson, school ALP, CCA or registered examination subject.

Important distinction: A programme photograph or marketing theme is not an official examination entry.

40. Choosing D&T in Secondary 2

Subject choices should combine actual interest, school-approved offerings, prerequisites and the workload. D&T appeals to many learners who enjoy improving how products work for people.

Imagine this: A child enjoys exploring mechanisms but has not yet seen the upper-secondary coursework expectations.

What helps: Read the school’s combination booklet and ask for examples of teaching and assessed work at the actual level.

Important distinction: Another student’s choice or the appeal of a technology buzzword does not establish fit.

41. The overlap with Art and Design Studies

Visual ideas, human needs and material decisions appear across several creative subjects. The difference lies in their objectives, assessed work and official registration.

Imagine this: A student is interested in visual communication, while another prefers physical mechanisms. Both are creative interests with different possible courses.

What helps: Compare actual school projects and exam criteria for each available elective.

Important distinction: Do not assume D&T, Art and Design Studies satisfy the same post-secondary subject requirement.

42. The overlap with Computing and digital literacy

Digital tools can support research, diagrams and prototypes, while Computing as an examined elective has specific algorithmic and software learning. Students benefit from clarity about the distinction.

Imagine this: A design student creates a presentation explaining a prototype but never writes a program for the project.

What helps: Name the actual digital skill being used and test whether it serves the design goal.

Important distinction: A school technology experience does not require all participants to study SEC Computing.

43. How to prepare for an actual SEC subject

Preparation should follow the syllabus level and teacher feedback. Depending on the course, useful practice may include design analysis, theory questions, project planning and supervised practical work.

Imagine this: A student understands how a mechanism works but loses marks explaining why it suits the brief.

What helps: Use the correct SEC code, diagnose the first weak link and practise another example at the appropriate level.

Important distinction: Do not borrow coursework conditions or paper weightings from a similarly named subject without checking.

44. A realistic weekly study schedule

Practical subjects can demand sustained attention to ideas, documentation and assessment milestones alongside academic and co-curricular work. A healthy routine keeps the workload visible.

Imagine this: A student has a design submission and a Mathematics test in the same week, making long unscheduled extra projects impractical.

What helps: Plan school commitments, short review periods, teacher-approved work and adequate rest before adding optional tasks.

Important distinction: More time spent drawing or tinkering is not necessarily more useful than focused improvement with feedback.

45. Design knowledge has many future connections

Technical and creative skills can lead students to explore engineering, digital design, manufacturing, sustainability and practical service systems. Each later course has its own current entry requirements.

Imagine this: A student interested in electronics may explore engineering diploma modules; another who loves users’ needs may explore product design.

What helps: Use official course descriptions and minimum entry requirements for the relevant intake before selecting upper-secondary subjects.

Important distinction: Studying one SEC design or technology course does not automatically guarantee a future institution’s admission offer.

46. The happiest closing question

The most valuable school conversation is about what the learner tried, what happened and what they will adjust next. A working prototype, clear sketch or explained circuit can all become evidence of learning.

Imagine this: Ask the student to show you the change they made after a test and explain why the new version better fits the original need.

What helps: Recognise the reasoning and curiosity instead of comparing the child with a different Posting Group.

Important distinction: The child’s first Secondary 1 admission arrangement cannot determine the full range of skills they may develop.

Parent questions about D&T, Electronics and technology

Is lower-secondary D&T taught only at G1, G2 or G3?

Common Curriculum D&T is taught at a shared lower-secondary level in mixed form classes under Full SBB.

Which national D&T codes exist in the 2027 SEC?

G1 K124, G2 K234 and G3 K345 are listed by SEAB.

Is G3 Electronics a separate subject?

Yes. Electronics K353 appears as a G3 SEC entry, distinct from D&T.

Is G1 Smart Electrical Technology the same as G3 Electronics?

No. K131 is a distinct G1 MOE–ITE Applied Subject offered by approved schools.

What is special about the 2027 Smart Electrical Technology entry?

SEAB says 2027 is the last examination year for the listed G1 MOE–ITE Applied Subjects.

What about G3 Design Studies?

K376 is a separate G3 Applied Subject with approved-school restrictions and a published 2028 final-examination notice.

Does a PG1 student have to take G1 D&T for SEC?

Not automatically. The student’s upper-secondary examined electives are governed by actual school offers and subject combinations.

Does PG3 mean the student must take Electronics?

No. G3 Electronics is a specific subject where offered, not a compulsory PG3 qualification.

Is D&T mainly about making models?

Models can be important, but D&T also involves problem understanding, research, idea development, testing and evaluation.

Why does a prototype that works still need testing?

One successful attempt may not show that the product reliably meets every user requirement.

Can I help my child complete an examined design project?

Support organisation and understanding without replacing the student’s own work or breaking school assessment conditions.

Are all design subjects assessed identically?

No. Use each formal syllabus for its papers, coursework and permitted work.

Is a robotics CCA an SEC Computing entry?

No. A CCA, ALP and a nationally registered SEC subject are different structures.

Can design activities help Mathematics?

Yes. Scale, measurements, geometry and relationships can provide useful practical contexts for mathematical thinking.

Is it safe to practise electronics from online videos?

Use only approved low-voltage school simulations and supervised activities; never experiment with mains electricity or unknown supplies.

Do all secondary schools offer G3 Electronics?

Do not assume so. Check the school’s current subject combination and approved offerings.

What if a child prefers Art to D&T?

Both are legitimate interests; compare subject learning tasks, available school programmes and actual eligibility.

Can D&T lead to engineering?

It can encourage an interest in engineering, but later programme admissions use their own subject prerequisites and criteria.

Does the 2027 syllabus apply to every later cohort?

No. Recheck the correct examination year, especially for applied subjects with final-year notices.

How can parents make a supportive choice?

Ask what the student likes designing, which part of the process they enjoy and what school options match those interests.

Explore the linked eduKateSG learning ecosystem

Each article below answers a different question: the national syllabus at a specific G-level, one focused technical concept, or the difference between the school’s shared lessons, applied programmes and examined qualifications.

Official MOE and SEAB subject references

A useful design question for tonight

Ask the learner who their latest design was meant to help, what went wrong during testing and which change they would try next. A design need not be perfect for the learning to be valuable. Honest feedback is often the beginning of a better result.

Every student deserves opportunities to develop practical imagination, analytical accuracy and respectful teamwork. PG1, PG2 and PG3 provide administrative starting points, not limits on what can be designed or understood.

Speak with eduKateSG about subject readiness

Contact eduKate Singapore or message eduKateSG with the child’s current Mathematics, Science or technical subject questions. Any additional learning plan should respect the school’s exact syllabus and a sustainable weekly schedule.