This simple swinging rod with a variable point of suspension allows one to investigate moment of inertia and the parallel axis theorem: a really simple , elegant and insightful mechanism to explain how the time period of an oscillator changes with moment of ...

This simple swinging rod with a variable point of suspension allows one to investigate moment of inertia and the parallel axis theorem: a really simple , elegant and insightful mechanism to explain how the time period of an oscillator changes with moment of inertia about an axis. Use it to investigate nonlinear relationships and for connecting maths to physics.

• The experiment aims to create a fully-translational and nearly-elastic collision between two balls to demonstrate energy conservation in 2D. • It involves a complete cycle of data recording, processing, plotting, and uncertainty calculation for the quantit...

• The experiment aims to create a fully-translational and nearly-elastic collision between two balls to demonstrate energy conservation in 2D.
• It involves a complete cycle of data recording, processing, plotting, and uncertainty calculation for the quantitative representation of the results.
• By comparing experimental observations with theory, it motivates students to explore the reasons for any deviation.

Physics of a complex pendulum.
Investigate Newton’s second law for angular motion.
Determine the moment of inertia for a bifilar pendulum.
Mathematical modeling of forces.
Calculating uncertainty and graphical representation of data.

Equilibrium in rotational motion is a tricky concept. This experiment helps you explore precisely that. It also helps you learn why is the earth bulged at the equator and squished at the poles. Rotating a stone attached to the end of a string ultimately lifts ...

Equilibrium in rotational motion is a tricky concept. This experiment helps you explore precisely that. It also helps you learn why is the earth bulged at the equator and squished at the poles. Rotating a stone attached to the end of a string ultimately lifts it. See this in action, and that too quantitatively.

This experiment uses a conical pendulum to familiarize the experimenter with dynamic equilibrium in rotational motion. In this investigation, we identify the free body diagram of a horizontally whirling object and see how the object lifts as its speed goes up. The lift apparently defies the downward pull of gravity but we see how an angular balance of forces allows the object to swirl at a certain lift angle. As the speed of the object changes, the forces adapt and preserve the delicate balance.

This experiment is based on using the deflection from a compass needle as the magnetic field from a current carrying coil is changed. The field is measured using a Hall sensor.

Ever wondered what is an integral and a derivative? See this mathematical phenomenon in action with Qosain Scientific's latest experimental device. This is also your window into Faraday's law, one of the cornerstones of the four Maxwell equations. The exper...

Ever wondered what is an integral and a derivative? See this mathematical phenomenon in action with Qosain Scientific's latest experimental device. This is also your window into Faraday's law, one of the cornerstones of the four Maxwell equations.

The experiment setup comprises a rotating disk, assembly of solenoids, a Hall probe, and all these connected to Qosain Scientific’s Physlogger. Beautiful signals of emf can be observed on the PC when the magnet carrying disk is rotated, and also, the field of the magnet as it approaches and recedes from the Hall Sensor. As solenoids are connected to the differential channel of Physlogger, floating signals of emf are logged by the Physlogger.

This experiment helps explore concepts in rotational mechanics such as angular momentum, angular velocity, angular acceleration, torque and rotational friction. Conservation of energy can also be investigated. Suitable for undergraduate physics laboratories.

Almost all of the known physical systems are essentially nonlinear. Yet, for simplicity, they can be treated as linear systems within some operating constraints. The magnetic pendulum is one such system. It is essentially a nonlinear system. So, it can help us to look into nonlinear phenomena such as chaos.

The air track uses compressed air issuing from precisely placed minute orifices equidistantly created in a metallic track. Gilders slide on this cushion with minimal friction. This assembly comprises all of what you need to perform simple or complicated experiments in your basic physics and mechanics laboratories.