• (10 points) The magnetic induction is defined by the Lorentz force equations: F = q(V...
electromagnetic 9) Lorentz Force and the Cyclotron Frequency: (15 pts) A point charge q has an initial velocity v = v. and is incident on a constant magnetic field B = B.2. v = v. B = 3,2 (a) Determine the magnitude and direction of the Lorentz force acting on the charge. Express your answer as a vector. (b) Derive the cyclotron frequency for a charge in circular motion in a constant magnetic field with incident velocity perpendicular to the...
Exercise 3. (12p) (Lorentz boosts) The Maxwell equations (7) are invariant under Lorentz transformations. This implies that given a solution of the Maxwell equa- tions, we obtain another solution by performing a Lorentz transformation to the solution. A particular Lorentz transformation is a Lorentz boost with velocity v in - direction and acts on the electric and magnetic field strength as given in appendix B. (1) Tong) Now consider the electric and magnetic field due to a line along the...
The force on a charged particle moving in a magnetic field can be computed as the vector sum of the forces due to each separate component of the magnetic field. As an example, a particle with charge q is moving with speed v in the? y-direction. It is moving in a uniform magnetic field Part A What is the x-component of the force F? exerted on the particle by the magnetic field? Part B What is the y-component of the force...
Question 2 Write down the equations of motion of a bead on a wheel: (a) from the frame of the wheel (b) from the frame of the ground (c) Write the equations of motion of a charged particle q in a static electric field that is orthogonal to a magnetic field. Recall: F = q(E + V x B) Lorentz force law. Hint: mimic the derivation for a charged particle in a magnetic field. You should get x'' = -2x...
Question 2 Write down the equations of motion of a bead on a wheel: (a) from the frame of the wheel (b) from the frame of the ground (c) Write the equations of motion of a charged particle q in a static electric field that is orthogonal to a magnetic field. Recall: F = q(E + V x B) Lorentz force law. Hint: mimic the derivation for a charged particle in a magnetic field. You should get x'' = -2x...
2 Coulomb Gauge Besides the Lorenz gauge, another typical gauge choice is the Coulomb gauge, defined by a) 2 Points] Is this gauge choice Lorentz invariant, i.e. is it the same for all reference frames? Justify your answer. Hint: It sufices to find a good reasoning here, so you don't necessarily need to compute anything but feel free to do so if you want). b) /2 Points/ Find a condition for x(2) in the Coulomb gauge, such that leaves the...
Find the direction of the magnetic force acting on a positive charge for this diagram, where y denotes the velocity of this positive charge and denotes the magnetic field. В What is the direction of the magnetic force on the positive charge in this diagram? The magnetic force points: A. to the right: B. out of the page: C. into the page D. to the left: E. upward: F downward; G. to the upper-left direction; H. to the upper right...
answer this questions fully with clear handwriting.. do not copy answers from lther questions or people... must have similar given hints/answers Problem II-B.3 (i) By deriving necessary formulation, determine the force exerted on a beam of electrons -Q) coulomb moving at a velocity v meter/sec in a magnetic field. Assume that this magnetic field is induced by a current-carrying coil kept at a distance of 'a meters from the face of the coil through a ferromagnetic rod as illustrated in...
2) The force that a magnetic field exerts on a charged particle is given by F = qö x B. A particle with mass m = 2.0x10 kg and charge q - +2.5x10°C has an initial speed of v = 4/2 x 103 m/s (in the x- y plane). The magnetic field vector and velocity vector are 5 and 0, respectively are displayed on the coordinate axis below. The angle between the vectors is 135 degrees. Use unit vector notation...
2.53A charged particle of mass m and positive charge q moves in uniform electric and magnetic fields. E and B, both pointing in the z direction. The net force on the particle is F = q (E + v x B). Write down the equation of motion for the particle and resolve it into its three components. Solve the equations and describe the particle's motion.