10th Grade Physics

Students will define physics, explore its branches, and practice scientific notation, significant figures, and unit conversions essential for quantitative analysis.

Distinguishing between magnitude-only values and those requiring direction. Students practice vector addition using tip-to-tail and component methods.

Students define and differentiate between position, distance, and displacement, applying these concepts to simple linear movements.

Students define and calculate average and instantaneous speed, velocity, and acceleration for objects moving in a straight line.

Analysis of position-time and velocity-time graphs to determine motion states. Students translate physical movement into mathematical slopes and areas.

Deriving and applying the kinematic equations for objects with constant acceleration. Students solve complex problems involving braking distances and takeoff speeds.

Students apply the derived kinematic equations to solve a variety of quantitative problems involving constant acceleration in one dimension.

Investigating the motion of objects influenced solely by gravity. Students calculate time, height, and velocity for objects dropped or thrown vertically.

Students learn to break down vectors into their perpendicular components and reconstruct them, essential for 2D motion analysis.

Analyzing two-dimensional motion where horizontal and vertical components are independent. Students calculate trajectories for launched objects.

Students solve more complex projectile problems, including those launched from a height or landing on an incline, considering optimal launch angles.

Understanding how motion is perceived differently depending on the observer's frame of reference.

Introduction to objects moving in a circle at constant speed, focusing on centripetal acceleration.

Students define force as a push or pull, identify different types of forces, and learn to draw free-body diagrams.

Exploring the tendency of objects to resist changes in motion and the concept of equilibrium.

Quantitative analysis of the relationship between net force, mass, and acceleration.

Students solve quantitative problems involving net force, mass, and acceleration in various one-dimensional scenarios.

Investigation of symmetry in forces and the identification of interaction pairs.

Differentiating between static and kinetic friction and calculating coefficients of friction.

Applying Newton's Law of Gravitation to planetary motion and satellite orbits.

Students explore the concept of a gravitational field and differentiate between mass and weight in various gravitational environments.

Analyzing forces on ramps and systems of connected masses using Atwood machines.

Studying forces in ropes and the restorative forces in springs (Hooke's Law).

Examining how drag forces balance gravity to reach a constant falling speed.

Students apply Newton's Second Law to objects undergoing uniform circular motion, identifying the source of centripetal force.

Introduction to torque as the rotational equivalent of force and conditions for rotational equilibrium.

Defining work as energy transfer and power as the rate of that transfer.

Mathematical modeling of energy related to motion and position.

Solving motion problems using the principle that energy cannot be created or destroyed.

Students analyze how energy changes forms within a system and calculate the efficiency of energy conversion processes.

Relating the force applied over time to the change in an object's momentum.

Analyzing collisions and explosions where the total momentum of the system remains constant.

Differentiating between collisions where kinetic energy is conserved and those where it is not.

Students explore the concept of the center of mass and its behavior during collisions and explosions.

Introduction to the energy associated with an object's rotation and its dependence on moment of inertia.

Students apply the conservation of angular momentum to systems undergoing rotational changes.

Evaluating how simple machines trade force for distance to make work easier.

Students analyze oscillatory motion, focusing on the period and frequency of springs and pendulums.

Exploring how damping forces affect oscillations and the phenomenon of resonance.

Relating the macroscopic measurement of temperature to the average kinetic energy of molecules.

Students differentiate between heat and internal energy and explore how energy is transferred at the molecular level.

Investigating why different materials require different amounts of energy to change temperature.

Analyzing the energy required to change the state of matter without changing its temperature.

Exploring conduction, convection, and radiation as the three ways energy moves.

Investigating how solids, liquids, and gases change size with temperature.

Applying the conservation of energy to thermal systems involving work and heat.

Students analyze the operation of heat engines and refrigerators in terms of the First Law of Thermodynamics.

Discussing the natural tendency of systems toward disorder and the limits of efficiency.

Study of stationary charges, electric forces, and the concept of fields.

Students visualize electric fields and understand electric potential energy as stored energy due to charge position.

Understanding electric potential energy and the "push" provided by batteries.

Students define electric current, differentiate between conventional current and electron flow, and introduce basic circuit components.

Mathematical relationship between voltage, current, and resistance in a conductor.

Analyzing complex circuit configurations and calculating equivalent resistance.

Students apply Kirchhoff's voltage and current laws to solve for unknown values in complex circuits.

Students calculate the power dissipated by circuit components and the total electrical energy consumed.

Investigating the properties of permanent magnets and the magnetic fields they produce.

Discovery of how moving electric charges create magnetic fields.

Students explore the force experienced by a current-carrying wire in a magnetic field and apply the right-hand rule.

Understanding Faraday's Law and how changing magnetic fields generate electricity.

Applying the principles of electromagnetism to convert between electrical and mechanical energy.

Defining frequency, wavelength, amplitude, and period for transverse and longitudinal waves.

Students explore how waves behave when encountering boundaries or obstacles.

Analysis of longitudinal waves in air and the physics of music.

Exploring the range of light from radio waves to gamma rays.

Applying the Law of Reflection to plane, concave, and convex mirrors.

Studying the bending of light as it passes between media and the use of lenses.

Students analyze the design and function of common optical instruments like telescopes, microscopes, and cameras.

Investigating the wave-like behaviors of light through superposition.

Understanding how we perceive color and the orientation of light waves.

Exploring Einstein's postulates and the consequences of the constant speed of light.

Evidence for the particle nature of light (photons) and its applications.

Understanding the Bohr model and how electron transitions produce light.

Investigating the dual nature of light and matter, and how this concept challenged classical physics.

Exploring the strong nuclear force and the balance of the nucleus.

Students analyze different types of radioactive decay and calculate half-life in various contexts.

Analyzing the energy released during the splitting or joining of atomic nuclei.

The life cycle of stars based on their initial mass and nuclear processes.

Exploring Newton's Law of Universal Gravitation and its application to planetary motion and satellite orbits.

Evidence for the origin of the universe and Hubble's Law.