Class 11 Physics

Students will identify fundamental and derived physical quantities and their standard SI units.

Students will practice using common measurement tools like rulers, vernier calipers, and screw gauges.

Students will learn to identify types of errors, calculate absolute and relative errors, and apply rules for significant figures.

Students will use dimensional analysis to check the consistency of equations and derive relationships between physical quantities.

Students will distinguish between scalar and vector quantities and represent vectors graphically.

Students will apply methods for adding and resolving vectors, including the triangle and parallelogram laws.

Students will define and calculate dot and cross products of vectors and understand their physical significance.

Students will define and differentiate between distance, displacement, speed, and velocity in one-dimensional motion.

Students will define acceleration and analyze motion with constant velocity and constant acceleration.

Students will apply the three kinematic equations to solve problems involving uniformly accelerated motion.

Students will interpret and create position-time, velocity-time, and acceleration-time graphs.

Students will solve problems involving relative velocity for objects moving in a straight line.

Students will describe position and displacement using vectors in a two-dimensional coordinate system.

Students will define and calculate average and instantaneous velocity and acceleration vectors in 2D.

Students will define force and inertia, and understand Newton's First Law of Motion.

Students will apply F=ma to solve problems involving force, mass, and acceleration.

Students will identify action-reaction pairs and apply the third law to various interactions.

Students will draw free body diagrams and apply conditions for translational equilibrium.

Students will define momentum and impulse and apply the impulse-momentum theorem.

Students will apply the principle of conservation of momentum to solve problems involving collisions and explosions.

Students will define work and calculate work done by a constant force at various angles.

Students will calculate work done by a variable force using graphical methods and integration.

Students will define kinetic energy and apply the work-energy theorem to relate work and change in kinetic energy.

Students will define gravitational and elastic potential energy and calculate their values.

Students will apply the principle of conservation of mechanical energy to solve problems involving conservative forces.

Students will define power and efficiency and calculate them for various systems.

Students will locate the center of mass for discrete and continuous systems and analyze its motion.

Students will define angular displacement, velocity, and acceleration and use rotational kinematic equations.

Students will define torque and moment of inertia and calculate them for simple systems.

Students will state and apply Newton's law of universal gravitation to calculate gravitational forces.

Students will define gravitational field strength and analyze variations in 'g' with altitude and depth.

Students will define gravitational potential energy and calculate escape velocity for celestial bodies.

Students will state and apply Kepler's three laws to describe planetary orbits.

Students will define stress and strain and differentiate between tensile, compressive, and shear types.

Students will apply Hooke's Law and define Young's modulus, bulk modulus, and shear modulus.

Students will interpret stress-strain curves to understand elastic limit, yield point, and ultimate tensile strength.

Students will define pressure in fluids and apply Pascal's Law to hydraulic systems.

Students will state Archimedes' Principle and apply it to problems involving floating and sinking objects.

Students will define surface tension and explain phenomena like capillarity and droplet formation.

Students will differentiate between temperature and heat and understand different temperature scales.

Students will analyze the linear, superficial, and volumetric expansion of solids and liquids with temperature changes.

Students will define specific heat capacity and latent heat and apply calorimetry principles to solve problems.

Students will differentiate between conduction, convection, and radiation and identify examples of each.

Students will apply Newton's Law of Cooling to predict the rate of temperature change of an object.

Students will state the Zeroth and First Laws of Thermodynamics and apply them to thermodynamic processes.

Students will differentiate between various thermodynamic processes and analyze their P-V diagrams.

Students will state the Second Law of Thermodynamics and understand the concept of entropy.

Students will analyze the working principles of heat engines and refrigerators and calculate their efficiencies.

Students will define periodic and oscillatory motion and identify their characteristics.

Students will define SHM and analyze its characteristics, including displacement, velocity, and acceleration.

Students will analyze the conservation of mechanical energy in SHM, focusing on kinetic and potential energy transformations.

Students will analyze the motion of a simple pendulum and a spring-mass system as examples of SHM.

Students will understand damped and forced oscillations and the phenomenon of resonance.

Students will differentiate between transverse and longitudinal waves and identify their characteristics.

Students will define and relate wave characteristics and apply the wave equation (v = fλ).

Students will derive and apply the formula for the speed of a transverse wave on a stretched string.

Students will analyze factors affecting the speed of sound in gases, liquids, and solids.