The video tutorial explores the physics of springs, focusing on Hooke's Law, equilibrium, and spring force. It demonstrates Hooke's apparatus and graphing techniques to understand spring action. The tutorial distinguishes between Hookean and non-Hookean springs, introduces simple harmonic motion, and explains spring potential energy. It also covers energy conservation principles, relating spring potential energy to gravitational potential energy, and demonstrates graphing techniques to calculate potential energy.

Which of the following objects does NOT typically contain a spring?

• Mattresses

• Books

• Locks

• Clocks

What is the natural position of a spring called?

• Restoring force

• Compression point

• Elastic limit

• Equilibrium position

In the equation F = -kx, what does 'k' represent?

• Equilibrium position

• Spring force

• Displacement

• Spring constant

What is the unit of measurement for the spring constant 'k'?

• Joules

• Newtons per meter

• Meters

• Kilograms

What is the term for the force that brings a spring back to its equilibrium position?

• Torsion force

• Gravitational force

• Restoring force

• Elastic force

What happens to a spring when it is stretched too much?

• It remains the same

• It breaks

• It becomes non-Hookean

• It becomes Hookean

What type of motion is exhibited by a spring with no friction?

• Random motion

• Linear motion

• Circular motion

• Simple harmonic motion

What is the equation for the potential energy of a spring?

• PE = 1/2 kx^2

• PE = 1/2 mv^2

• PE = mgh

• PE = kx

How is gravitational potential energy related to spring potential energy?

• They can be converted into each other

• They are the same

• They are inversely proportional

• They are unrelated

What happens to the potential energy of a spring when it is stretched or compressed horizontally?

• It becomes zero

• It excludes gravitational potential energy

• It includes gravitational potential energy

• It doubles