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O-Level Physics Syllabus (6091)

Introduction to O-Level Physics Syllabus

The O-Level physics syllabus provides students with a coherent understanding of energy, matter, and their interrelationships. It focuses on investigating natural phenomena and then applying patterns, models (including mathematical ones), principles, theories and laws to explain the physical behaviour of the universe. The theories and concepts presented in this syllabus belong to a branch of physics commonly referred to as classical physics. Modern physics, developed to explain the quantum properties at the atomic and sub-atomic levels, is built on knowledge of these classical theories and concepts.

 

Students should think of physics in terms of scales. Whereas the classical theories such as Newton’s laws of motion apply to common physical systems larger than the size of atoms, a more comprehensive theory, quantum theory, is needed to describe systems at the atomic and sub-atomic scales. At these scales, physicists are making new discoveries and inventing new applications.

 

It is envisaged that teaching and learning programmes based on this syllabus would feature various learning experiences designed to promote the acquisition of scientific expertise and understanding and to develop values and attitudes relevant to science. Teachers are encouraged to use a combination of appropriate strategies to engage and challenge their students effectively. It is expected that students will apply investigative and problem-solving skills, effectively communicate the theoretical concepts covered in this course and appreciate the contribution physics makes to our understanding of the physical world.

Aims of O-Level Physics

The O-Level Physics syllabus aims to:

  1. provide a worthwhile educational experience for all students, whether or not they go on to study science
    beyond this level
  2. develop in students the understanding, and skills relevant to the practices of science, and enable them to
    1. appreciate practical applications of Physics in the real world
    2. deepen their interest in Physics for future learning and work
    3. become scientifically literate citizens who can innovate and seize opportunities in the 21st century
    4. use the disciplinary ideas in Physics to approach, analyse and solve problems in the physical world
  3. develop in students the values, ethics and attitudes relevant to science such as
    1. curiosity – desiring to explore the environment and question what is found
    2. creativity – seeking innovative and relevant ways to solve problems
    3. integrity – handling and communicating data and information with complete honesty
    4. objectivity – seeking data and information to validate observations and explanations without bias
    5. open-mindedness – accepting all knowledge as tentative and suspending judgment, tolerance for ambiguity, willingness to change views if the evidence is convincing
    6. resilience – not giving up on the pursuit of answers/solutions, willingness to take risks and embrace failure as part of the learning process
    7. responsibility – showing care and concern for living things and awareness of our responsibility for the quality of the environment
    8. healthy scepticism – questioning the observations, methods, processes and data, as well as trying to review one’s own ideas

Disciplinary Ideas of Physics

The disciplinary ideas of Physics represent the overarching ideas essential for the understanding of Physics. An understanding of these ideas helps students see the interconnectedness of ideas within and across the subdisciplines of Physics. Equipping students with a coherent view and conceptual framework facilitates the application and transfer of learning. These disciplinary ideas can be revisited and deepened at higher levels of
learning and beyond the schooling years.

 

Disciplinary ideas are introduced at the upper secondary levels when students begin to specialise in the subdisciplines of science.

 

  1. Matter and energy make up the Universe
  2. Matter interacts through forces and fields
  3. Forces help us understand motion
  4. Waves can transfer energy without transferring matter
  5. Conservation laws constrain the changes in systems
  6. Microscopic models can explain macroscopic phenomena

Assessment Objectives

The Assessment Objectives listed below reflect those parts of the Aims and Practices of Science that will be assessed.

 

A Knowledge with understanding

 

Candidates should be able to demonstrate knowledge and understanding about:

 

  1. scientific phenomena, facts, laws, definitions, concepts and theories
  2. scientific vocabulary, terminology and conventions (including symbols, quantities and units contained in Signs, Symbols and Systematics: The ASE Companion to 16-19 Science, (2000))
  3. scientific instruments and apparatus, including techniques of operation and aspects of safety
  4. scientific quantities and their determination of scientific and technological applications with their social, economic and environmental implications.

The syllabus content defines the factual knowledge that candidates may be required to recall and explain.

Questions testing these objectives will often begin with one of the following words: define, state, name, describe, explain or outline.

B Handling Information and Solving Problems

Candidates should be able (in words or by using symbolic, graphical and numerical forms of presentation) to:

  1. locate, select, organise and present information from a variety of sources
  2. translate information from one form to another
  3. manipulate numerical and other data
  4. use information to identify patterns, report trends and draw inferences
  5. present reasoned explanations for phenomena, patterns and relationships
  6. make predictions and propose hypotheses to solve problems.

These Assessment Objectives cannot be precisely specified in the content because questions testing such skills may be based on information which is unfamiliar to the candidate. In answering such questions, candidates are required to use principles and concepts that are within the syllabus and apply them in a logical, reasoned or deductive manner to a novel situation. Questions testing these objectives will often begin with one of the following words: predict, deduce, suggest, calculate or determine.

C Experimental Skills and Investigations

Candidates should be able to:

  1. follow a sequence of instructions
  2. use techniques, apparatus and materials
  3. make and record observations, measurements and estimates
  4. interpret and evaluate observations and experimental results
  5. plan investigations, select techniques, apparatus and materials
  6. evaluate methods and suggest possible improvements.

Weighting of Assessment Objectives

Theory Papers (Papers 1 and 2)

A Knowledge with Understanding, approximately 45% of the marks with approximately 15% allocated to recall.
B Handling Information and Solving Problems, approximately 55% of the marks.

Practical Assessment (Paper 3)

Paper 3 will assess appropriate aspects of assessment objectives C1 to C6 in the following skill areas:

  • Planning (P)
  • Manipulation, measurement and Observation (MMO)
  • Presentation of data and observations (PDO)
  • Analysis, conclusions and evaluation (ACE)

The assessment of Planning (P) will have a weighting of 15%. The assessment of skill areas MMO, PDO and
ACE will have a weighting of 85%.

Scheme of Assessment

Candidates are required to enter for Papers 1, 2 and 3.

Paper Type of Paper Duration Marks Weighting

1

Multiple Choice

1 h

40

30%

2

Structured and Free Response

1 h 45 min

80

50%

3

Practical

1 h 50 min
40
20%

Theory Papers

Paper 1 (1 h, 40 marks)

This paper consists of 40 compulsory multiple-choice items.

Paper 2 (1 h 45 min, 80 marks)

This paper consists of two sections.

Section A will carry 70 marks and consist of a variable number of compulsory structured questions. The last two questions will carry 20 marks, one of which is a data-based question requiring candidates to interpret, evaluate or solve problems using a stem of information. The data-based question will carry 8–12 marks. 

Section B will carry 10 marks and will consist of two questions. Candidates must answer only one out of these two questions.

Practical Assessment

Paper 3 (1h 50 min, 40 marks)

This paper will consist of 2 sections.

Section A will carry 20 marks and will consist of 1–2 compulsory practical experiment questions with a total duration of 55 min.

Section B will carry 20 marks and will consist of one compulsory 55-minute practical experiment question.

One, or more, of the questions may incorporate assessment of Planning (P) and require candidates to apply and integrate knowledge and understanding from different sections of the syllabus. The assessment of PDO and ACE may include questions on data-analysis which do not require practical equipment and apparatus.

Candidates would be allocated a specified time for access to apparatus and materials of specific questions.

Candidates are not allowed to refer to notebooks, textbooks or any other information during the assessment.

Content Structure

Section Topics

I. Measurement

1. Physical Quantities, Units and Measurement

II. Newtonian Mechanics

2. Kinematics
3. Dynamics
4. Turning Effect of Forces
5. Pressure
6. Energy

III. Thermal Physics

7. Kinetic Particle Model of Matter
8. Thermal Processes
9. Thermal Properties of Matter

IV. Waves

10. General Properties of Waves
11. Electromagnetic Spectrum
12. Light

V. Electricity and Magnetism

13. Static Electricity
14. Current of Electricity
15. D.C. Circuits
16. Practical Electricity
17. Magnetism
18. Electromagnetism
19. Electromagnetic Induction

VI. Radioactivity

20. Radioactivity

Full O-Level Physics syllabus details can be read in the SEAB O-Level Physics Syllabus 6091.