ABCDEFGHIJKLMNOPQRSTUVWXYZ
1
Kit Sam Lam Bing Yim Secondary School
2
2025 - 2026 Secondary 5 (Physics) Scheme of work
3
Subject headMr. Lee Chi Yuen
Sub-panel members
Mr. Yung Ming Yan
Written byMr. Yung Ming Yan
4
Remarks
5
A. Key Tasks code1.Moral and Civic Education; 2. Reading to learn3. Project learning; 4.Information Technology for Interactive Learning
6
B.Twelve priority values and attitudes code1. "Perseverance", 2. "Respect for Others", 3. "Responsibility", 4. "National Identity", 5. "Commitment", 6. "Integrity" ,
7. "Care for Others"
7
8. "Law-abidingness" , 9. "Empathy" and 10. "Diligence” 11. “Unity” 12. ‘Filial Piety’
8
C. Core values of Catholic schools code1. Truth; 2. Life; 3. Family 4. Love; 5. Justise
9
D. The Constitution, the Basic Law and the National Security Education code : #
10
E. Major concerns of the year1. Cultivate students' proactive attitudes towards learning, enabling them to become knowledgeable and thoughtful while appreciating the exploration and growth inherent in the learning process.
11
            2. Foster a positive campus culture to help students thrive in a healthy and confident environment.
12
F. Coursebooks
13
14
Lesson LearningWhole school approach
15
Week (no.of periods)ThemeKnowledgeSkillsA. Major concernsB. Twelve priority values and attitudes codeAttitudesC. Core values of Catholic schools codeD. The Constitution, the Basic Law and the National Security EducationLife-wide learning weekPractice and serviceCreating a School AtmosphereRemarksTeacher-in-charge
16
17
1-3(10)Book 2
Ch 6 Work, Energy and Power
Interpret work as a way of energy transfer Solve problems involving work1 Apply knowledge and principles of physics to solve problems1Mr. Yung Ming Yan
18
Define work done W = Fs cosθ Apply P = W/t to solve problems
19
Define power as the rate of energy transfer solve problems involving kinetic energy
20
State that kinetic energy is the energy possessed by an object due to its motion Solve problems involving gravitational potential energy
21
State that gravitational potential energy is the energy possessed by an object due to its position under gravity Discuss the inter-conversion of P.E. and K.E. with consideration of energy loss
22
Derive K.E. = ½mv2 and P.E. = mgh Solve problems involving conservation of energy
23
State the law of conservation of energy
24
4-6(10)Ch 7 Momentum1. Realise momentum as a quantity of motion of an object and define momentum p = mvØ  Solve problems involving momentum in one dimension13To be Be aware of the importance of car safety and be committed to safe practices in their daily life1Mr. Yung Ming Yan
25
2. Understand that a net force acting on an object for a period of time results a change in momentum
26
3. Interpret force as the rate of change of momentum (Newtons Second Law of motion)
27
4. State the law of conservation of momentum and relate it to Newton’s Third Law of motion
28
5. Distinguish between elastic and inelastic collisions
29
7(4)Book 1
Ch 1 Temperature and thermometer
1. Realise temperature as the degree of hotness of an object.Ø Explain the use of temperature-dependent properties in measuring temperature. 1Apply knowledge and principles of physics to solve problems1Mr. Yung Ming Yan
30
2. Interpret temperature as a quantity associated with the average kinetic energy due to the random motion of molecules in a system.
31
3. Define and use degree Celsius as a unit temperature.
32
8-9(4)Ch.2.1
Heat and internal energy
Ø  Realise that heat is the energy transferred as a result of the temperature difference between two objects.Ø  Describe the effect of mass, temperature, state of matter on the internal energy of a system.1Ø  Observe and record experimental observations accurately and honestly1Mr. Yung Ming Yan
33
Ø  Relate internal energy to sum of the kinetic energy of random motion and potential energy of molecules in the system.
34
10-11(8)Ch.3
Specific heat capacity and heat capacity
1. Define heat capacity as C = Q/ΔT and specific heat capacity c = Q/mΔT.Ø  Discuss the practical importance of the high specific heat capacity of water. 16Ø Observe and record experimental observations accurately and honestly1, 5Mr. Yung Ming Yan
35
2. Determine the specific heat capacity of a substance. Solve problems involving heat capacity and specific heat capacity.
36
Science processing skills
37
Ø  Devise and plan experiments
38
39
12-13(8)Ch.4.1
Latent Heat
1. Realise latent heat as the energy transferred during the change of state without temperature change.Solve problems involving latent heat.11Ø  Evaluate experimental methods and suggest possible improvement and realize that there are always limitations in experiments.1, 5Mr. Yung Ming Yan
40
2. Interpret latent heat in terms of the change of potential energy of the molecules during a change of state.
41
3. Define specific latent heat of fusion as
42
4. Define specific latent heat of vaporization as .
43
14(4)Ch.4.2
Evaporation
1. Realise the occurrence of evaporation below boiling pointØ Explain the cooling effect of evaporation.111Mr. Yung Ming Yan
44
Ø Discuss the factors affecting rate of evaporation.
45
Ø Explain evaporation in terms of molecular motion.
46
15(4)Ch 2.2 Heat transfer processes1. Interpret energy transfer in terms of conduction, convection and radiation. Ø  Identify the means of energy transfer in terms of conduction, convection and radiation.12, 6, 9Ø  Develop open-mindedness and be able to show tolerance and respect towards the opinions and decisions of others even in disagreement1, 4Mr. Yung Ming Yan
47
2. Realise the emission of infra-red radiation by hot objects. Science processing skillsØ  To realize the importance of greenhouses in agriculture and the environmental issues of the “greenhouse effect”
48
3. Determine the factors affecting the emission and absorption of radiation. Ø  Select appropriate methods and apparatus to carry out investigationsØ  To be aware of the large amount of energy associated with the transfer of heat and to develop good habits in using air-conditioning in summer and heating in winter
49
Ø Develop a habit of self-reflection and the ability to think critically
50
51
52
53
54
16-17(4)Ch.5 Gases (Extension)Ø   Realise the existence of gas pressure Ø   Determine pressure-temperature and volume-temperature1Ø   Understand phenomena, facts and patterns, principles, concepts, laws and theories in physics1Mr. Yung Ming Yan
55
Ø   Verify Boyle’s law Ø   Determine absolute zero by the extrapolation of pressure-temperature or volume-temperature relationships Apply knowledge and principles of physics to solve problems
56
Ø   relationships of a gas Ø   Apply the general gas law pV= nRT to solve problems
57
Ø   Use Kelvin as a unit of temperature Ø   Apply temperature of an ideal gas using KEaverage = 3 RT/2 NA
58
Ø   Combine the three relationships (p-V, p-T and V-T) of a gas to obtain the relationship pV/T = constantØ Solve problems involving kinetic theory
59
Ø   Realise the random motion of molecules in a gas
60
Ø   Realise the gas pressure resulted from molecular bombardment
61
Ø   Interpret gas expansion in terms of molecular motion
62
Ø   State the assumptions of the kinetic model of an ideal gas
63
Ø   Realize pV = 1/3 N mc2
64
Ø   Realise the condition that at high temperature and low pressure a real gas behaves as an ideal gas
65
18-19First Term Examination
66
19-20(3)Paper Checking
67
20-23(12)Book 2
Ch.8 Projectile motion (extension)
1. To describe the shape of the path taken by a projectile launched at an angle of projection Ø  To solve problems involving projectile motion1Ø   Understand phenomena, facts and patterns, principles, concepts, laws and theories in physicsMr. Yung Ming Yan
68
2. To understand the independence of horizontal and vertical motions Ø   Apply knowledge and principles of physics to solve problems
69
70
24-25(6)Ch.9 Circular motion(extension)1. To define angular velocity as the rate of change of angular displacement and relate it to linear velocity Ø  To solve problems involving uniform circular motion16Ø  Observe and record experimental observations accurately and honestly1Mr. Yung Ming Yan
71
2. To state centripetal acceleration a v2/rScience processing skills
72
3. To realise the resultant force pointing towards the centre of uniform circular motionØ  Students are expected to devise and plan experiments
73
Ø  Devise plans and procedures to carry out investigations
74
Ø  Handle apparatus properly and safely;
75
Ø  Apply knowledge and principles of physics to solve problems
76
Ø  Organise and analyse data, and infer from observations and experimental results
77
Ø  Interpret observations and experimental data; and evaluate experimental methods and suggest possible improvements.
78
Recognise the limitations of instruments used
79
26-27(8)Ch.10 Gravitation
(extension)
1. To state Newton’s law of universal gravitation F =GMm/r2Ø  Identify natural phenomena14Ø To appreciate the roles of science and technology in the exploration of outer-space and the efforts of humankind in the quest to understand nature1#Mr. Yung Ming Yan
80
2. To define gravitational field strength as force per unit mass Ø  Understand phenomena, facts and patterns, principles, concepts, laws and theories in physics
81
3. To determine the gravitational field strength at a point above a planetØ  Apply knowledge and principles of physics to solve problems
82
4. To determine the velocity of an object in a circular orbit
83
5. To solve problems involving gravitation
84
28-29(4)Book 4
Ch 1 Electrostatics (extension)
1. Examine the evidence for two kinds of charges in natureØ Solve problems involving forces between point charges1Ø Develop an understanding of technological applications of physics & of their social implications1Mr. Yung Ming Yan
85
2. Realise the attraction and repulsion between chargesØ Explain how charges interact via an E- field
86
3. State Coulomb’s law F = Q1 Q2 / 4πεor2Ø Apply B = μoI/2πr &
87
4. Interpret charging in terms of electron transfer Ø  B = μoNI to represent the magnetic fields around a long straight wire, and inside a long solenoid
88
5. Describe the electric field around a point charge and between parallel charged platesØ determine the factors affecting the force on a straight current-carrying wire in a magnetic field and represent the force by F = BIl sinθ
89
6. Represent an electric field using field lines
90
7. Define ampere in terms of the force between currents in long straight parallel wires
91
92
30-31(8)Ch 2 Electric Circuits
Ch 3 Electric Circuits in practice
Ø State the convention for the direction of electric current Ø   Describe the energy transformations in electric circuits 17Ø   Observe and record experimental observations accurately and honestly1Mr. Yung Ming Yan
93
Ø Define the potential difference (p.d.) between two points in a circuit as the electric potential energy converted to other forms per unit charge passing between the points outside the source Ø   Describe the variation of current with applied p.d. in metal wires, electrolytes and filament lamps
94
Ø Define the electromotive force (e.m.f.) of a source as the energy imparted by the source per unit charge passing through itØ Determine the factors affecting the resistance of a wire and define its resistivity ρ = RA/l
95
Ø Define resistance R = V / IØ   Solve the resistance combinations in series and parallel R = R1+R2+ . for resistors connected in series 1/R=1/R1+1/R2 +.. for resistors connected in parallel circuit
96
Ø Realise Ohm’s law as a special case of resistance behaviour Ø   Describe the effect of temperature on resistance of metals and semiconductorscompare series and parallel circuits in terms of p.d. across the components of each circuit and the current through them
97
Ø Assign the electrical potential of any earthed points as Compare the e.m.f. of a source and the terminal voltage across the source experimentally and relate the difference to the internal resistance of the source Ø Measure I, V and R in simple circuits
98
Ø Examine the heating effect when a current passes through a conductor Ø   Explain the effects of resistance of ammeters and voltmeters on measurements
99
Ø Solve problems involving simple circuits
100
Ø Apply P = VI to solve problems