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

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

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

B2.1: use appropriate terminology related to dynamics, including, but not limited to: inertial and non-inertial frames of reference, components, centripetal, period, frequency, static friction, and kinetic friction

Inclined Plane - Sliding Objects

Period of Mass on a Spring

Period of a Pendulum

Simple Harmonic Motion

Uniform Circular Motion

B2.2: solve problems related to motion, including projectile and relative motion, by adding and subtracting two-dimensional vector quantities, using vector diagrams, vector components, and algebraic methods

B2.3: analyse, in qualitative and quantitative terms, the relationships between the force of gravity, normal force, applied force, force of friction, coefficient of static friction, and coefficient of kinetic friction, and solve related two-dimensional problems using free-body diagrams, vector components, and algebraic equations (e.g., calculate the acceleration of a block sliding along an inclined plane or the force acting on a vehicle navigating a curve)

Golf Range

Gravitational Force

Inclined Plane - Simple Machine

Inclined Plane - Sliding Objects

Pith Ball Lab

Shoot the Monkey

Uniform Circular Motion

B2.4: predict, in qualitative and quantitative terms, the forces acting on systems of objects (e.g., masses in a vertical pulley system [a “dumb waiter”], a block sliding off an accelerating vehicle, masses in an inclined-plane pulley system), and plan and conduct an inquiry to test their predictions

Inclined Plane - Simple Machine

Pulley Lab

B2.5: analyse, in qualitative and quantitative terms, the relationships between the motion of a system and the forces involved (e.g., a block sliding on an inclined plane, acceleration of a pulley system), and use free-body diagrams and algebraic equations to solve related problems

Inclined Plane - Simple Machine

Pith Ball Lab

Pulley Lab

B2.6: analyse, in qualitative and quantitative terms, the forces acting on and the acceleration experienced by an object in uniform circular motion in horizontal and vertical planes, and use free-body diagrams and algebraic equations to solve related problems

Inclined Plane - Simple Machine

Uniform Circular Motion

B2.7: conduct inquiries into the uniform circular motion of an object (e.g., using video analysis of an amusement park ride, measuring the forces and period of a tether ball), and analyse, in qualitative and quantitative terms, the relationships between centripetal acceleration, centripetal force, radius of orbit, period, frequency, mass, and speed

B3.3: explain the derivation of equations for uniform circular motion that involve the variables frequency, period, radius speed, and mass

C2.1: use appropriate terminology related to energy and momentum, including, but not limited to: work, work–energy theorem, kinetic energy, gravitational potential energy, elastic potential energy, thermal energy, impulse, change in momentum–impulse theorem, elastic collision, and inelastic collision

2D Collisions

Air Track

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Simple Machine

Inclined Plane - Sliding Objects

Potential Energy on Shelves

Pulley Lab

C2.2: analyse, in qualitative and quantitative terms, the relationship between work and energy, using the work–energy theorem and the law of conservation of energy, and solve related problems in one and two dimensions

Inclined Plane - Simple Machine

Pulley Lab

C2.3: use an inquiry process to analyse, in qualitative and quantitative terms, situations involving work, gravitational potential energy, kinetic energy, thermal energy, and elastic potential energy, in one and two dimensions (e.g., a block sliding along an inclined plane with friction; a cart rising and falling on a roller coaster track; an object, such as a mass attached to a spring pendulum, that undergoes simple harmonic motion), and use the law of conservation of energy to solve related problems

Air Track

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Simple Machine

Inclined Plane - Sliding Objects

Simple Harmonic Motion

C2.4: conduct a laboratory inquiry or computer simulation to test the law of conservation of energy during energy transformations that involve gravitational potential energy, kinetic energy, thermal energy, and elastic potential energy (e.g., using a bouncing ball, a simple pendulum, a computer simulation of a bungee jump)

Air Track

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Sliding Objects

C2.5: analyse, in qualitative and quantitative terms, the relationships between mass, velocity, kinetic energy, momentum, and impulse for a system of objects moving in one and two dimensions (e.g., an off-centre collision of two masses on an air table, two carts recoiling from opposite ends of a released spring), and solve problems involving these concepts

2D Collisions

Air Track

Free-Fall Laboratory

Inclined Plane - Sliding Objects

Uniform Circular Motion

C2.6: analyse, in qualitative and quantitative terms, elastic and inelastic collisions in one and two dimensions, using the laws of conservation of momentum and conservation of energy, and solve related problems

C2.7: conduct laboratory inquiries or computer simulations involving collisions and explosions in one and two dimensions (e.g., interactions between masses on an air track, the collision of two pucks on an air table, collisions between spheres of similar and different masses) to test the laws of conservation of momentum and conservation of energy

C3.1: describe and explain Hooke’s law, and explain the relationships between that law, work, and elastic potential energy in a system of objects

C3.2: describe and explain the simple harmonic motion (SHM) of an object, and explain the relationship between SHM, Hooke’s law, and uniform circular motion

C3.3: distinguish between elastic and inelastic collisions

C3.4: explain the implications of the laws of conservation of energy and conservation of momentum with reference to mechanical systems (e.g., damped harmonic motion in shock absorbers, the impossibility of developing a perpetual motion machine)

2D Collisions

Air Track

Energy Conversion in a System

Energy of a Pendulum

Inclined Plane - Sliding Objects

D2.2: analyse, and solve problems relating to, Newton’s law of universal gravitation and circular motion (e.g., with respect to satellite orbits, black holes, dark matter)

Gravitational Force

Pith Ball Lab

Uniform Circular Motion

D2.3: analyse, and solve problems involving, electric force, field strength, potential energy, and potential as they apply to uniform and non-uniform electric fields (e.g., the fields produced by a parallel plate and by point charges)

D2.5: conduct a laboratory inquiry or computer simulation to examine the behaviour of a particle in a field (e.g., test Coulomb’s law; replicate Millikan’s experiment or Rutherford’s scattering experiment; use a bubble or cloud chamber)

E2.1: use appropriate terminology related to the wave nature of light, including, but not limited to: diffraction, dispersion, wave interference, nodal line, phase, oscillate, polarization, and electromagnetic radiation

E2.3: conduct inquiries involving the diffraction, refraction, polarization, and interference of light waves (e.g., shine lasers through single, double, and multiple slits; observe a computer simulation of Young’s double-slit experiment; measure the index of refraction of different materials; observe the effect of crossed polarizing filters on transmitted light)

E2.4: analyse diffraction and interference of water waves and light waves (e.g., with reference to two-point source interference in a ripple tank, thin-film interference, multiple-slit interference), and solve related problems

E3.1: describe and explain the diffraction and interference of water waves in two dimensions

E3.2: describe and explain the diffraction, refraction, polarization, and interference of light waves (e.g., reduced resolution caused by diffraction, mirages caused by refraction, polarization caused by reflection and filters, thin-film interference in soap films and air wedges, interference of light on CDs)

E3.3: use the concepts of refraction, diffraction, polarization, and wave interference to explain the separation of light into colours in various situations (e.g., light travelling through a prism; light contacting thin film, soap film, stressed plastic between two polarizing filters)

F1.1: analyse the development of the two major revolutions in modern physics (e.g., the impact of the discovery of the photoelectric effect on the development of quantum mechanics; the impact of thought experiments on the development of the theory of relativity), and assess how they changed scientific thought

F2.1: use appropriate terminology related to quantum mechanics and special relativity, including, but not limited to: quantum theory, photoelectric effect, matter waves, time dilation, and mass–energy transformation

F2.2: solve problems related to the photoelectric effect, the Compton effect, and de Broglie’s matter waves

F2.4: conduct a laboratory inquiry or computer simulation to analyse data (e.g., on emission spectra, the photoelectric effect, relativistic momentum in accelerators) that support a scientific theory related to relativity or quantum mechanics

Bohr Model of Hydrogen

Photoelectric Effect

Star Spectra

F3.1: describe the experimental evidence that supports a particle model of light (e.g., the photoelectric effect, the Compton effect, pair creation, de Broglie’s matter waves)

Correlation last revised: 9/24/2019

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