Description: Centre of mass is the point where the total mass of a system is concentrated.

Description: The motion of the center of mass follows the path determined by external forces on the system.

Description: Linear momentum of a system is the vector sum of individual momenta of all particles.

Description: The vector product of two vectors yields a vector perpendicular to both, with magnitude and direction.

Description: The vector product results in a vector perpendicular to both original vectors, with specific direction.

Description: Motion of Center of Mass II: Describes mass movement in multi-body systems, focusing on interactions.

Description: Angular Velocity: Rotational speed around an axis. Linear Velocity: Straight-line speed of an object.

Description: Torque: Force causing rotation. Angular Momentum: Rotational equivalent of linear momentum, conserved in closed systems.

Description: Equilibrium of a Rigid Body: Forces and torques balance, causing no linear or rotational motion.

Description: Equilibrium of a Rigid Body II: Analyzes conditions for multiple forces and torques in complex systems.

Description: Equilibrium of a rigid body means forces and torques balance out, preventing any motion or rotation.

Description: Moment of inertia measures an object's resistance to rotational motion about a specific axis.

Description: Moment of inertia depends on mass distribution relative to the rotation axis, affecting rotational dynamics.

Description: Moment of inertia quantifies how mass distribution affects an object's resistance to rotational acceleration.

Description: Torque causes rotational motion, while angular momentum measures rotational motion’s quantity, depending on mass and velocity.

Description: Theorems of perpendicular and parallel axes relate to moments of inertia in rotating rigid bodies.

Description: These theorems extend to calculating moments of inertia about shifted axes in complex systems.

Description: It studies the angular motion of objects around a fixed axis, involving angular velocity and acceleration.

Description: It explores torque, angular momentum, and rotational energy in objects rotating about a fixed axis.

Description: Focuses on equations of motion, involving torque, moment of inertia, and angular acceleration in rotational systems.

Description: Angular momentum about a fixed axis depends on the moment of inertia and angular velocity of rotation.

Description: Conservation of angular momentum states that it remains constant if no external torque acts on the system.

Description: Combines rotational and translational motion, analyzing how angular momentum influences rolling without slipping.

Description: Explores the conservation of angular momentum in rolling motion, focusing on the relationship between rotational and linear velocities.

Description: Investigates energy distribution in rolling motion, balancing rotational kinetic energy and translational kinetic energy.

Description: Angular momentum about a fixed axis involves rotational inertia; rolling motion combines rotation and translation.

Description: Angular momentum: conserved for a fixed axis; rolling motion links angular velocity with translational speed.

Description: Angular momentum depends on rotational inertia and angular velocity; rolling motion involves no slipping conditions.

Description: Angular momentum around a fixed axis: constant; rolling motion blends rotation and linear displacement.

Description: Angular momentum conserves rotational motion; rolling motion requires rotational inertia and friction for no slipping.

Description: Angular momentum: product of inertia and angular velocity; rolling motion merges rotational and linear movements.

Description: Synopsis of Gravitation - I introduces the concept of gravitational force between two masses in space.

Description: Synopsis of Gravitation - II explores gravitational potential energy and the influence of gravity on objects.

Description: Kepler's Laws - I covers the law of planetary orbits, stating planets move in elliptical paths.

Description: Kepler's Laws - II explains the law of equal areas, describing the speed of planetary motion.

Description: Kepler's Laws - III discusses the law of harmonies, relating orbital periods to distances from the Sun.

Description: Kepler's Laws - IV elaborates on the mathematical derivations and applications of Kepler’s laws in astronomy.

Description: Kepler's Laws - V focuses on advanced applications of Kepler's laws in satellite and planetary orbits.

Description: Universal Law of Gravitation & Gravitational Constant - I introduces Newton's law of universal gravitation.

Description: Universal Law of Gravitation & Gravitational Constant - II explores the gravitational constant and its role in calculations.

Description: Universal Law of Gravitation & Gravitational Constant - III explains the relationship between gravitational force and mass.

Description: Universal Law of Gravitation & Gravitational Constant - IV discusses how gravity affects objects' motion on Earth.

Description: Universal Law of Gravitation & Gravitational Constant - V covers calculations involving gravitational potential and kinetic energy.

Description: Universal Law of Gravitation & Gravitational Constant - VI explains gravitational fields and their impact on objects' acceleration.

Description: Universal Law of Gravitation & Gravitational Constant - VII discusses experimental validation of the law and gravitational constant.

Description: Acceleration Due to Gravity of the Earth - I introduces Earth's gravity and how it affects objects' free-fall acceleration.

Description: Acceleration Due to Gravity of the Earth - I explains Earth's gravitational pull and its effect on falling objects.

Description: Acceleration Due to Gravity of the Earth - II discusses variations in gravity based on altitude and Earth's shape.

Description: Gravitational Potential Energy - I introduces potential energy stored due to an object's position in a gravitational field.

Description: Gravitational Potential Energy - II covers the formula for calculating gravitational potential energy between two masses.

Description: Gravitational Potential Energy - III explains how gravitational potential energy changes with distance and mass.

Description: Gravitational Potential Energy - IV explores applications of gravitational potential energy in planetary motion and orbits.

Description: Acceleration due to Gravity Below and Above the Surface of Earth explains how gravity changes with altitude and depth.

Description: Escape Speed - I introduces the minimum velocity needed for an object to escape Earth's gravitational pull.

Description: Escape Speed - II covers the mathematical derivation and factors affecting escape speed, like mass and radius.

Description: Escape Speed - III discusses practical examples and applications of escape velocity in space travel.

Description: Earth Satellites - I introduces artificial satellites and their orbits around Earth for communication, research, and navigation.

Description: Earth Satellites - II explains satellite types, including geostationary and low-Earth orbits, and their respective functions.

Description: Earth Satellites - III explores satellite launches, orbital paths, and how satellites stay in motion.

Description: Earth Satellites - IV covers advanced applications of Earth satellites in weather monitoring, mapping, and space exploration.

Description: Energy of an Orbiting Satellite - I explains the kinetic and potential energy of satellites in stable orbits.

Description: Energy of an Orbiting Satellite - II discusses the conservation of mechanical energy for orbiting satellites.

Description: Energy of an Orbiting Satellite - III explores energy transfers during satellite orbit changes or deorbiting.

Description: Geostationary and Polar Satellites - I introduces the difference between geostationary and polar orbits and their applications.

Description: Geostationary and Polar Satellites - II discusses the advantages of each orbit type in communication and Earth observation.

Description: Weightlessness & Miscellaneous Questions - I explains the concept of weightlessness experienced by astronauts in orbit.

Description: "Gravitational Potential - I" explains the concept of gravitational potential energy and its calculation in gravitational fields.

Description: "Gravitational Potential - II" explores gravitational potential due to spherical mass distributions and its impact on nearby objects.

Board: CBSE

Stream: Science

Standard: XI

Course: JEE/NEET

Know MoreBoard: CBSE

Stream: Science

Standard: XI

Course: JEE/NEET

Know MoreBoard: CBSE

Stream: Science

Standard: XI

Course: JEE/NEET

Know MoreBoard: CBSE

Stream: Science

Standard: XII

Course: JEE/NEET

Know MoreBoard: CBSE

Stream: Science

Standard: XII

Course: JEE/NEET

Know MoreBoard: CBSE

Stream: Science

Standard: XII

Course: JEE/NEET

Know More