JC 1 Physics

Students will explore the scope of physics as a science and understand the systematic approach of the scientific method through practical examples.

Students will learn about the International System of Units (SI) and differentiate between base and derived quantities, practicing unit conversions.

Students will gain practical experience using various instruments to measure length, mass, and time, focusing on precision and accuracy.

Students will learn to identify sources of error, distinguish between random and systematic errors, and express measurements with appropriate significant figures.

Students will differentiate between scalar and vector quantities and learn to represent vectors graphically and through simple addition/subtraction.

Students will define and distinguish between distance and displacement, and speed and velocity, applying these concepts to simple motion problems.

Students will define acceleration as the rate of change of velocity and solve problems involving constant acceleration in one dimension.

Students will interpret and draw displacement-time graphs to analyze an object's position, velocity, and direction of motion.

Students will interpret and draw velocity-time graphs to determine displacement, acceleration, and total distance traveled.

Students will define force as a push or pull, identify different types of forces, and understand how forces cause changes in motion.

Students will understand Newton's First Law of Motion, relating it to inertia and the concept of balanced and unbalanced forces.

Students will apply Newton's Second Law to calculate force, mass, and acceleration, solving problems involving net force.

Students will differentiate between mass and weight, understanding weight as a gravitational force and calculating it using g.

Students will understand Newton's Third Law, identifying action-reaction pairs and applying the law to various interactions.

Students will investigate the nature of friction and air resistance, understanding their effects on motion and methods to reduce or increase them.

Students will define work as the product of force and displacement in the direction of the force, calculating work done in various scenarios.

Students will define kinetic energy and calculate it for moving objects, understanding its relationship to work.

Students will define gravitational potential energy and calculate it for objects in a gravitational field, relating it to work done against gravity.

Students will apply the principle of conservation of energy to various systems, understanding energy transformations between kinetic and potential forms.

Students will quantify work done and the conversion between kinetic, potential, and internal energy, applying the work-energy theorem.

Students will define pressure as force per unit area and apply this concept to understand how pressure is exerted by solids.

Students will investigate how pressure varies with depth in liquids and understand the concept of atmospheric pressure.

Students will learn about Pascal's principle and its application in hydraulic systems, such as hydraulic brakes and lifts.

Students will explore the concept of atmospheric pressure, its measurement, and its effects on everyday phenomena.

Students will differentiate between temperature and heat, understanding temperature as a measure of average kinetic energy and heat as energy transfer.

Students will investigate the phenomenon of thermal expansion in solids, liquids, and gases and its practical applications and consequences.

Students will define specific heat capacity and use it to calculate heat transfer, understanding its role in temperature changes.

Students will explore latent heat as the energy involved in phase changes (melting, boiling) without temperature change.

Students will investigate conduction as a method of heat transfer through direct contact, focusing on thermal conductors and insulators.

Students will explore convection as heat transfer through the movement of fluids (liquids and gases), understanding convection currents.

Students will investigate radiation as heat transfer through electromagnetic waves, understanding factors affecting emission and absorption.

Students will describe the three states of matter (solid, liquid, gas) in terms of the arrangement and motion of their particles, and explain changes of state.

Students will define waves as energy transfer mechanisms, differentiating between transverse and longitudinal waves and identifying wave properties.

Students will explore sound as a longitudinal wave, investigating its production, transmission, and properties like pitch and loudness.

Students will understand the phenomenon of echoes and explore the applications of ultrasound in medical imaging and sonar.

Students will identify light as an electromagnetic wave, exploring its properties and the different regions of the electromagnetic spectrum.

Students will investigate the laws of reflection using plane mirrors, understanding image formation and ray diagrams.

Students will explore the phenomenon of refraction, understanding how light bends when passing through different mediums and applying Snell's Law.

Students will investigate total internal reflection, understanding critical angle and its applications in optical fibers and prisms.

Students will explore image formation by converging and diverging lenses using ray diagrams and the lens formula.

Students will investigate the phenomena of static electricity, understanding charge, charging methods, and electrostatic forces.

Students will define electric current, voltage (potential difference), and resistance, understanding their relationships in simple circuits.

Students will apply Ohm's Law (V=IR) to solve problems involving simple circuits, understanding the relationship between voltage, current, and resistance.

Students will analyze the characteristics of series circuits, including current, voltage distribution, and total resistance.

Students will analyze the characteristics of parallel circuits, including current division, voltage, and total resistance.

Students will define electrical power and energy, calculating them in circuits and understanding their practical implications.

Students will investigate the properties of magnets, magnetic fields, and the concept of magnetic poles.

Students will explore the relationship between electricity and magnetism, understanding how current produces magnetic fields and vice versa.

Students will understand the motor effect, where a current-carrying conductor in a magnetic field experiences a force, and its applications.

Students will investigate electromagnetic induction, understanding how changing magnetic fields induce electromotive force (EMF) and current.

Students will understand gravity as a universal attractive force, differentiate between mass and weight, and calculate weight using gravitational field strength.

Students will explore the structure of the atomic nucleus, understanding protons, neutrons, and isotopes.