Ontario Curriculum

A1.1: formulate relevant scientific questions about observed relationships, ideas, problems, or issues, make informed predictions, and/or formulate educated hypotheses to focus inquiries or research

Diffusion

Pendulum Clock

Sight vs. Sound Reactions

A1.5: conduct inquiries, controlling relevant variables, adapting or extending procedures as required, and using appropriate materials and equipment safely, accurately, and effectively, to collect observations and data

Diffusion

Pendulum Clock

Triple Beam Balance

A1.6: compile accurate data from laboratory and other sources, and organize and record the data, using appropriate formats, including tables, flow charts, graphs, and/or diagrams

Earthquakes 1 - Recording Station

Pendulum Clock

A1.10: draw conclusions based on inquiry results and research findings, and justify their conclusions with reference to scientific knowledge

A1.13: express the results of any calculations involving data accurately and precisely, to the appropriate number of decimal places or significant figures

Unit Conversions 2 - Scientific Notation and Significant Digits

B1.1: analyse, on the basis of research, a technology that applies concepts related to kinematics (e.g., devices used to measure speed in sports; rocket accelerators; motion-detecting sensors for security systems; speedometers in automobiles)

B2.1: use appropriate terminology related to kinematics, including, but not limited to: time, distance, position, displacement, speed, velocity, and acceleration

Free-Fall Laboratory

Golf Range

Shoot the Monkey

B2.2: analyse and interpret position–time, velocity– time, and acceleration–time graphs of motion in one dimension (e.g., use tangent slopes to create velocity–time graphs from position–time graphs and acceleration–time graphs from velocity–time graphs; use the area under the curve to create position–time graphs from velocity–time graphs and velocity–time graphs from acceleration–time graphs)

Distance-Time Graphs - Metric

Distance-Time and Velocity-Time Graphs

Distance-Time and Velocity-Time Graphs - Metric

Free-Fall Laboratory

B2.3: use a velocity–time graph for constant acceleration to derive the equation for average velocity [e.g., vav = (v1 + v2)/2] and the equations for displacement [e.g., “Delta”d = ((v1 + v2)/2) “Delta”t, “Delta”d = v1“Delta”t + ½a (“Delta”t2)], and solve simple problems in one dimension using these equations

B2.4: conduct an inquiry into the uniform and non-uniform linear motion of an object (e.g., use probeware to record the motion of a cart moving at a constant velocity or a constant acceleration; view a computer simulation of an object attaining terminal velocity; observe a video of a bouncing ball or a skydiver; observe the motion of a balloon with a small mass suspended from it)

Atwood Machine

Free-Fall Laboratory

B2.6: plan and conduct an inquiry into the motion of objects in one dimension, using vector diagrams and uniform acceleration equations

Atwood Machine

Free-Fall Laboratory

B2.7: solve problems involving uniform and non-uniform linear motion in one and two dimensions, using graphical analysis and algebraic equations

Free-Fall Laboratory

Uniform Circular Motion

B2.8: use kinematic equations to solve problems related to the horizontal and vertical components of the motion of a projectile (e.g., a cannon ball shot horizontally off a cliff, a ball rolling off a table, a golf ball launched at a 45º angle to the horizontal)

Free-Fall Laboratory

Golf Range

Shoot the Monkey

B2.9: conduct an inquiry into the projectile motion of an object, and analyse, in qualitative and quantitative terms, the relationship between the horizontal and vertical components (e.g., airborne time, range, maximum height, horizontal velocity, vertical velocity)

B3.1: distinguish between the terms constant, instantaneous, and average with reference to speed, velocity, and acceleration, and provide examples to illustrate each term

Distance-Time and Velocity-Time Graphs - Metric

Free-Fall Laboratory

B3.2: distinguish between, and provide examples of, scalar and vector quantities as they relate to the description of uniform and non-uniform linear motion (e.g., time, distance, position, velocity, acceleration)

B3.3: describe the characteristics and give examples of a projectile’s motion in vertical and horizontal planes

C2.1: use appropriate terminology related to forces, including, but not limited to: mass, time, speed, velocity, acceleration, friction, gravity, normal force, and free-body diagrams

Crumple Zones

Fan Cart Physics

Free-Fall Laboratory

Gravitational Force

Inclined Plane - Simple Machine

Inclined Plane - Sliding Objects

Pith Ball Lab

C2.2: conduct an inquiry that applies Newton’s laws to analyse, in qualitative and quantitative terms, the forces acting on an object, and use free-body diagrams to determine the net force and the acceleration of the object

Atwood Machine

Fan Cart Physics

Free-Fall Laboratory

Inclined Plane - Simple Machine

C2.3: conduct an inquiry into the relationship between the acceleration of an object and its net force and mass (e.g., view a computer simulation of an object attaining terminal velocity; observe the motion of an object subject to friction; use electronic probes to observe the motion of an object being pulled across the floor), and analyse the resulting data

Atwood Machine

Crumple Zones

Fan Cart Physics

Free-Fall Laboratory

Inclined Plane - Sliding Objects

C2.4: analyse the relationships between acceleration and applied forces such as the force of gravity, normal force, force of friction, coefficient of static friction, and coefficient of kinetic friction, and solve related problems involving forces in one dimension, using free-body diagrams and algebraic equations (e.g., use a drag sled to find the coefficient of friction between two surfaces)

Fan Cart Physics

Free-Fall Laboratory

Inclined Plane - Simple Machine

Inclined Plane - Sliding Objects

Pith Ball Lab

C2.5: plan and conduct an inquiry to analyse the effect of forces acting on objects in one dimension, using vector diagrams, free-body diagrams, and Newton’s laws

Atwood Machine

Fan Cart Physics

Inclined Plane - Simple Machine

Pith Ball Lab

C2.6: analyse and solve problems involving the relationship between the force of gravity and acceleration for objects in free fall

C3.1: distinguish between, and provide examples of, different forces (e.g., friction, gravity, normal force), and describe the effect of each type of force on the velocity of an object

Crumple Zones

Golf Range

Inclined Plane - Sliding Objects

Shoot the Monkey

C3.3: state Newton’s laws, and apply them, in qualitative terms, to explain the effect of forces acting on objects

Atwood Machine

Crumple Zones

Fan Cart Physics

C3.4: describe, in qualitative and quantitative terms, the relationships between mass, gravitational field strength, and force of gravity

Gravitational Force

Pith Ball Lab

D2.1: use appropriate terminology related to energy transformations, including, but not limited to: mechanical energy, gravitational potential energy, kinetic energy, work, power, fission, fusion, heat, heat capacity, temperature, and latent heat

Air Track

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Sliding Objects

Roller Coaster Physics

Trebuchet

D2.2: solve problems relating to work, force, and displacement along the line of force

D2.3: use the law of conservation of energy to solve problems in simple situations involving work, gravitational potential energy, kinetic energy, and thermal energy and its transfer (heat)

Air Track

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Sliding Objects

Pulley Lab

Roller Coaster Physics

D2.4: plan and conduct inquiries involving transformations between gravitational potential energy and kinetic energy (e.g., using a pendulum, a falling ball, an object rolling down a ramp) to test the law of conservation of energy

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Rolling Objects

Inclined Plane - Sliding Objects

Roller Coaster Physics

Trebuchet

D2.7: compare and contrast the input energy, useful output energy, and per cent efficiency of selected energy generation methods (e.g., hydroelectric, thermal, geothermal, nuclear fission, nuclear fusion, wind, solar)

Energy Conversion in a System

Inclined Plane - Sliding Objects

Pulley Lab

D2.9: conduct an inquiry to determine the specific heat capacity of a single substance (e.g., aluminum, iron, brass) and of two substances when they are mixed together (e.g., the heat lost by a sample of hot water and the heat gained by a sample of cold water when the two samples are mixed together)

D2.10: solve problems involving changes in temperature and changes of state, using algebraic equations (e.g., Q = mc“Delta”T, Q = mLf, Q = mLv)

D2.11: draw and analyse heating and cooling curves that show temperature changes and changes of state for various substances

D3.1: describe a variety of energy transfers and transformations, and explain them using the law of conservation of energy

2D Collisions

Air Track

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Sliding Objects

Roller Coaster Physics

Trebuchet

D3.2: explain the concepts of and interrelationships between energy, work, and power, and identify and describe their related units

D3.3: explain the following concepts, giving examples of each, and identify their related units: thermal energy, kinetic energy, gravitational potential energy, heat, specific heat capacity, specific latent heat, power, and efficiency

Calorimetry Lab

Potential Energy on Shelves

Pulley Lab

D3.4: identify, qualitatively, the relationship between efficiency and thermal energy transfer

D3.5: describe, with reference to force and displacement along the line of force, the conditions that are required for work to be done

D3.7: explain, using the kinetic molecular theory, the energy transfer that occurs during changes of state

D3.10: compare the characteristics of (e.g., mass, charge, speed, penetrating power, ionizing ability) and safety precautions related to alpha particles, beta particles, and gamma rays

D3.11: explain radioactive half-life for a given radioisotope, and describe its applications and their consequences

E2.1: use appropriate terminology related to mechanical waves and sound, including, but not limited to: longitudinal wave, transverse wave, frequency, period, cycle, amplitude, phase, wavelength, velocity, superposition, constructive interference, destructive interference, standing waves, and resonance

Longitudinal Waves

Ripple Tank

Sound Beats and Sine Waves

Waves

E2.2: conduct laboratory inquiries or computer simulations involving mechanical waves and their interference (e.g., using a mass oscillating on a spring, a mass oscillating on a pendulum, the oscillation in a string instrument)

Longitudinal Waves

Sound Beats and Sine Waves

E2.3: plan and conduct inquiries to determine the speed of waves in a medium (e.g., a vibrating air column, an oscillating string of a musical instrument), compare theoretical and empirical values, and account for discrepancies

E2.4: investigate the relationship between the wavelength, frequency, and speed of a wave, and solve related problems

E2.5: analyse the relationship between a moving source of sound and the change in frequency perceived by a stationary observer (i.e., the Doppler effect)

Doppler Shift

Doppler Shift Advanced

Longitudinal Waves

E3.1: distinguish between longitudinal and transverse waves in different media, and provide examples of both types of waves

E3.3: explain and graphically illustrate the principle of superposition with respect to standing waves and beat frequencies

E3.4: identify the properties of standing waves, and, for both mechanical and sound waves, explain the conditions required for standing waves to occur

E3.6: explain selected natural phenomena (e.g., echo location, or organisms that produce or receive infrasonic, audible, or ultrasonic sound) with reference to the characteristics and properties of waves

F2.1: use appropriate terminology related to electricity and magnetism, including, but not limited to: direct current, alternating current, conventional current, electron flow, electrical potential difference, electrical resistance, power, energy, step-up transformer, and step-down transformer

Electromagnetic Induction

Magnetic Induction

F2.2: analyse diagrams of series, parallel, and mixed circuits with reference to Ohm’s law (V = IR) and Kirchhoff’s laws

F2.5: investigate, through laboratory inquiry or computer simulation, the magnetic fields produced by an electric current flowing through a long straight conductor and a solenoid (e.g., use sensors to map the magnetic field around a solenoid)

F2.7: investigate electromagnetic induction, and, using Lenz’s law, the law of conservation of energy, and the right-hand rule, explain and illustrate the direction of the electric current induced by a changing magnetic field

F3.2: explain, by applying the right-hand rule, the direction of the magnetic field produced when electric current flows through a long straight conductor and through a solenoid

F3.4: explain Ohm’s law, Kirchhoff’s laws, Oersted’s principle, the motor principle, Faraday’s law, and Lenz’s law in relation to electricity and magnetism

Advanced Circuits

Circuits

Electromagnetic Induction

F3.5: describe the production and interaction of magnetic fields, using diagrams and the principles of electromagnetism (e.g., Oersted’s principle, the motor principle, Faraday’s law, Lenz’s law)

F3.6: explain the operation of an electric motor and a generator, including the roles of their respective components

F3.9: describe and explain safety precautions (e.g., “call before you dig”, current-limiting outlets in bathrooms) related to electrical circuits and higher transmission voltages (e.g., with reference to transformer substations, buried cables, overhead power lines)

Correlation last revised: 1/22/2020

This correlation lists the recommended Gizmos for this province's curriculum standards. Click any Gizmo title below for more information.