1 Which of the following graphs obeys the equation F = kx, where k is a constant? star A A Figure B B Figure C C Figure D D Figure T5 Chapter 1.4 Elasticity
2 Diagram shows a displacement-time graph for a moving object. What is the distance travelled by the object after 6 seconds? star A 0 m B - 20 m C 40 m D 60 m T4 Chapter 2.2 Linear Motion Graphs
3 A feather and a stone are falling freely in a vacuum from the same height. Which statement is correct about motion? star A The feather and the stone fall with constant velocity. B The feather and the stone have the same kinetic energy. C The feather and the stone reach the ground at the same time. D The gravitational force acting on the feather and the stone are the same. T4 Chapter 2.3 Free Fall Motion
4 Diagram shows a man jerking a table cloth. The glass remains on the table because of inertia. Which action increases the inertia? star A Use a rougher cloth B Use a smoother cloth C Pull the cloth with greater force D Fill the glass with more water T4 Chapter 2.4 Inertia
5 Diagram shows two trolleys each of mass 1 kg, before and after collision. The initial velocity of trolley A and trolley B are 6 m s^-1 and 4 m s^-1 respectively. After collision, both trolleys move together. What is the velocity of both trolleys after collision? star A 1.0 m s^-1 B 2.0 m s^-1 C 5.0 m s^-1 D 10.0 m s^-1 T4 Chapter 2.5 Momentum
6 Diagram shows a goalkeeper wearing a pair of gloves while catching the ball. How does the glove prevent hand injury? star A Increases impulse force B Reduces impact time C Prolong impact time T4 Chapter 2.7 Impulse and Impulsive Force
7 A steel ball fell from a height of 30m above the surface of the Moon. Determine the time taken by the steel ball reaching the surface of the Moon. [The gravity pull of the Moon is \frac{1}{6} of the Earth, g_{Earth} = 9.81 Nkg^{-1}] star A 0.60 s B 1.43 s C 3.71 s D 6.06 s T4 Chapter 2.3 Free Fall Motion
8 The orbital radius of the Earth is 1.50 x 10^{11} m while the orbital period of Earth and Mars is 1.00 years and 1.88 years respectively. Calculate the radius of the orbit of Mars. star A 2.28 x 10^{11} m B 2.58 x 10^{11} m C 5.30 x 10^{11} m D 9.97 x 10^{11} m T4 Chapter 3.2 Kepler's Laws
9 The escape velocity from the surface of planet Mars is 5.02 kms^{-1}. Assume that the mass of Mars is M and the radius is R. What is the escape velocity of a spacecraft at an altitude of 0.3R from the surface of the Mars star A 4.40 kms^{-1} B 2.75 kms^{-1} C 5.72 kms^{-1} D 9.16 kms^{-1} T4 Chapter 3.3 Man-made Satellites
10 The concept used in the measurement of body temperature using a mercury clinical thermometer is? star A Thermal equilibrium B Thermal convection C Specific latent heat D Specific heat capacity T4 Chapter 4.1 Thermal Equilibrium
11 Hot water at 100 °C is added to 100g of ice cube at 0°C. What is the minimum mass of hot water needed to melt all the ice cubes? (Specific Heat Capacity of water: 4.2 Jg^-1°C^-1; Specific Latent Heat of Fusion of Ice: 334 Jg^-1) star A 13 g B 80 g C 40 g D 126 g T4 Chapter 4.2 Specific Heat Capacity T4 Chapter 4.3 Specific Latent Heat
12 At a depth of 10m water exerts a pressure equal to the atmospheric pressure. An air bubble rises to the surface of a lake from a depth of 30m deep. When the bubble reaches the surface, its volume if 6.0cm^3. What is the initial volume of the bubble? star A 1.5 cm^3 B 37.4 cm^3 C 43.9 cm^3 D 2.0 cm^3 T4 Chapter 4.4 Gas Laws T5 Chapter 2.1 Pressure in Liquids
13 Diagram 13 shows a graph of an oscillation system experiences damping. Which of the following quantity does not change? star A Size of oscillation B Energy of oscillation C Period of oscillation D Amplitude of oscillation T4 Chapter 5.2 Damping and Resonance
14 Diagram 14 below shows the determination of the depth of the sea by ultrasonic sound. The time interval between the transmitted ultrasonic impulse and the received ultrasonic impulse is 0.5 second. How deep is the sea? [Speed of sound wave in the water = 1 200 m s^-1] star A 75 m B 150 m C 300 m D 600 m T4 Chapter 5.3 Reflection of Waves
15 Diagram 15 shows a water waves move from region X to region Y. Which of the following statements is correct? star A The waves move faster in region Y B The speed of the waves is constant when it moves from region X to region Y C The waves have a bigger frequency at region X D The waves have a higher amplitude at region Y T4 Chapter 5.4 Refraction of Waves
16 Diagram 16 shows radio waves are received at a house at the bottom of a hill. The house at the opposite side of the hill can receive the radio waves because the waves can be star A diffracted B radiated C reflected D refracted T4 Chapter 5.5 Diffraction of Waves
17 Diagram below shows a cooking utensil. Which type of wave is used by the cooking utensil to cook food? star A infrared B Microwaves C ultraviolet rays D Gamma rays T4 Chapter 5.7 Electromagnetic Waves
18 Which of the following optical instruments use the principle of total internal reflection? star A Prism binokular B Simple Microscope C Astronomical telescope D Car rear view mirror T4 Chapter 6.2 Total Internal Reflection
19 Diagram below shows an incomplete ray diagram for a concave lens. Determine the position of image. star A A B B C C D D T4 Chapter 6.3 Image Formation by Lenses
20 Diagram shows the formation of an image from an object by a convex lens. What is the height of the object if the height of its imge is 4 cm? star A 0.5 cm B 1.0 cm C 2.0 cm D 3.0 cm T4 Chapter 6.3 Image Formation by Lenses
21 Diagram 21 shows a Gemologist using an optical instrument to identify and evaluate gemstones. Which of the following optical instrument is used by a gemologist? star A Kanta Pembesar / Magnifying glass B Mikroskop / Microscope C Teleskop / Telescope D Periskop / Periscope T4 Chapter 6.5 Optical Instruments
22 Diagram 22 shows a vehicle rear mirror. What are characteristics will be formed by the vehicle rear mirror? star A Virtual, Diminished, upright B Real, Diminished, Upright C Virtual, Magnified, Upright D Real, Magnified, Upright T4 Chapter 6.6 Image Formation by Spherical Mirrors
23 Diagram shows a free body diagram and all forces acting on the object. Which of the following diagrams represents motion in balanced force? star A A Figure B B Figure C C Figure D D Figure T5 Chapter 1.3 Forces in Equilibrium
24 Diagram 24 shows a boy pulled by a cart with a force, F with an angle of 65º above horizontal surface with constant speed. Which of the following represents the of forces act on the cart. star A F sin 65° = W B F cos 65° = W C F sin 35° = F_c D F cos 65° = F_c T5 Chapter 1.2 Resolution of Forces
25 Diagram 25 shows the arrangement of springs of an instrument used by a body builder. Why parallel spring arrangement is used? star A Increase the stiffness of the spring B Increase the elasticity of the spring C Increase the extension of the spring D Increase the oscillation period of the spring T5 Chapter 1.4 Elasticity
26 Diagram 26 shows a scuba diver is diving in the ocean. Which of the following is true about the pressure experience by the diver? star A Water pressure decreases with water depth B An increase in depth of 10 m causes an increase water pressure of 10 atmosphere C The pressure experienced is water pressure only D Water pressure depends on density of the water. T5 Chapter 2.1 Pressure in Liquids
27 Diagram 27 shows a manometer connected to a gas supply? Difference in height, h will increase if star A The pressure of the gas supply is decreased B Water is replaced with a liquid with lower density C Water is replaced with a liquid with greater density D Manometer is placed at a region of higher atmospheric pressure T5 Chapter 2.3 Gas Pressure
28 Diagram 28 shows a hydraulic brake system for a motorcycle. The motorcyclist pulls the brake handle with pressure at X and it will produce a pressure at Y. Which is correct about the pressure at X and Y? star A Pressure at X = Pressure at Y B Pressure at X > Pressure at Y C Pressure at X < Pressure at Y T5 Chapter 2.4 Pascal's Principle
29 A rubber ball is dropped into the water. The ball sinks and moves upward after reaching a certain depth. Which pair is correct to show the relationship between buoyant force and weight? star A Sink: Buoyant force < Weight; Moves Upward: Buoyant force > Weight B Sink: Buoyant force > Weight; Moves Upward: Buoyant force = Weight C Sink: Buoyant force = Weight; Moves Upward: Buoyant force > Weight D Sink: Buoyant force < Weight; Moves Upward: Buoyant force = Weight T5 Chapter 2.5 Archimedes' Principle
30 Diagram shows a top view of a sailboat sailing against the direction of wind. Which direction A, B, C or D, the lift force acting on the sail? star A A B B C C D D T5 Chapter 2.6 Bernoulli's Principle
31 The charge flowing in an electric circuit in one minute is 3.0 C. What is the current in this circuit? star A 0.05 A B 3.0 A C 20.0 A D 180.0 A T5 Chapter 3.1 Current and Potential Difference
32 Diagram shows a dry cell connected to a bulb and the current flows through it is 0.5 A. What is the potential difference across the bulb? star A 4.1 V B 8.8 V C 9.0 V D 9.2 V T5 Chapter 3.3 Electromotive Force (e.m.f.) and Internal Resistance
33 Diagram shows a water heater marked " 240 V, 2500 W" that was used for 30 minutes. Determine the energy used by the water heater. star A 75000 kWh B 3750 kWh C 75 kWh D 1.25kWh T5 Chapter 3.4 Electrical Energy and Power
34 Diagram shows a current-carrying wire between the poles of a pair of permanent magnets. What is the direction of the force on the wire? star A A B B C C D D T5 Chapter 4.1 Force on a Current-carrying Conductor in a Magnetic Field
35 Direction of induced current in DC generator can be determined by using star A Right Hand Grip Rule B Right Hand Screw Rule C Fleming's Right Hand Rule D Fleming's left Hand Rule T5 Chapter 4.2 Electromagnetic Induction
36 A nuclide is represented by 241 95Am star A Neutron: 95, Proton: 95 B Neutron: 146, Proton: 95 C Neutron: 146, Proton: 241 D Neutron: 241, Proton: 146 T5 Chapter 6.1 Radioactive Decay
37 Diagram 1 shows a transistor circuit What components should be connected in the R box and the S box so that the Light Emitting Diode (LED) bulb will light up when the environment gets dark? star A Box R: Resistor; Box S: Light dependent resistor B Box R: Light dependent resistor; Box S: Resistor C Box R: Thermistor; Box S: Resistor D Box R: Resistor; Box S: Thermistor T5 Chapter 5.3 Transistor
38 What happens when two deuterium nuclei (\(_1^2\)H) combine to form a helium nucleus (\(_2^4\)He)? star A Mass and energy are both created B Mass and energy are both dissapeared C Mass change into energy D Energy change into mass T5 Chapter 6.2 Nuclear Energy
39 Max Planck's great discovery is that radiant energy is emitted in packets known as star A Quanta B Electron C Work function D Stopping voltage T5 Chapter 7.1 Quantum Theory of Light
40 A monochromatic light with a frequency, f is directed at a metal surface with a work function W. A photoelectron of mass m is released obeying Einstein's photoelectric equation \(\frac{1}{2}\)mv\(^2\) = hf – W The symbol 'v' represents star A average speed of photoelectrons B total speed of photoelectrons C maximum speed of photoelectrons D minimum speed of photoelectrons T5 Chapter 7.3 Einstein's Photoelectric Theory