Scenario: Answer the following questions about a small cyclotron with a maximum radius of 3.5 meters. (a) Suppose it accelerates electrons in a 1.4 T magnetic field. Calculate the period for the applied alternating voltage. (b) Find the maximum kinetic energy of t

Let's take the Earth's magnetic field BE = 1.70 x 10-4 T pointing north. A metal cable attached to a space station stretches by 1.4 km. What would be the potential difference ( ΔΔ V) that develops between the ends of the cable if it’s traveling eastbound around Earth with a speed 4.4 km/s?

The cyclotron at TRIUMF accelerates protons from a central injection point outward along an increasing spiral path. Magnets direct the protons around and around until they travel outwards far enough to leave the magnetic field. The protons reach a final speed of 1.1×108 m/s when they leave the cyclotron. Suppose inside the cyclotron there is a uniform magnetic field downwards, with strength 0.4 T. What is the magnitude of the magnetic force, in piconewtons, on the proton at the moment it leaves the cyclotron? Assume the proton is travelling eastwards when that happens. Answer in piconewtons. Also state what direction was the force on the proton the moment it left the magnetic field. Be clear and show all your work.

Calculate the velocity of a particle with charge qp=1.6×10−19qp=1.6×10−19 that moves at right angles to the direction of a uniform magnetic field of strength 57.2 mT , if the magnetic force on particle is 4×10−134×10−13 N. Give your answer in km s-1.

A cyclotron designed to accelerate protons has a magnetic field of magnitude 0.650 T over a region of radius 1.40 m. (a) What is the cyclotron frequency? 1.82E10 Your response differs significantly from the correct answer. Rework your solution from the beginning and check each step carefully. rad/s (b) What is the maximum speed acquired by the protons? 1.6E11 Your response differs significantly from the correct answer. Rework your solution from the beginning and check each step carefully. m/s

An electron of kinetic energy 41.5 keV moves in a circular orbit perpendicular to a magnetic field of 0.645 T. Find the radius of the orbit.Find the period of the motion.