Identify the direction of the net force on a current carrying semicircular wire in a uniform B-field. (Goal: Recognizing forces on current elements)
Identify the correct statements regarding an astronaut in space. (Goal: Distinguish between mass, gravitational force and weight.)
Identify the orientation for which a two block and spring system will jump highest. (Goal: Reason with impulse and energy)
Determine the acceleration of a hoop rolling down an incline. (Goal: Problem solving with rotational dynamics)
Identify the torque about one end of a uniform rod suspended by two strings of unequal length. (Goal: Reasoning and hone the concept of torque.)
Determine the mass of a rod hinged to a wall and supported by a string. (Goal: Problem solve with rotational dynamics)
Determine the acceleration of a rolling disk pulled by a string wrapped about its circumference. (Goal: Problem solving)
Determine the acceleration of a disk rolling down an incline. (Goal: Problem solving with rotational dynamics)
Determine the friction force acting on a disk rolling down an incline. (Goal: Problem solving with dynamics)
Identify the work done on a gas during a thermodynamic cycle. (Goal: Hone the concept of work for a thermodynamic system)
Identify the correct statement about the comparison of the internal energy of states of a gas. (Goal: Reason with internal energy)
Identify the graphical representation of an isobaric compression process. (Goal: Link representations)
Determine the heat extracted during one portion of a thermodynamic cycle. (Goal: Problem solving in thermodynamics)
Identify the correct assertion regarding process quantities for a thermodynamic cycle. (Goal: Reasoning with thermodynamics)
Compare the heat for two different thermodynamic paths between two temperatures. (Goal: Reasoning with thermodynamics)
Indicate the situation in which a moving charge in a magnetic field travels the greatest distance. (Goal: Reasoning with magnetic forces)
Indicate the situation in which a moving charge in a magnetic field has the largest displacement in time T. (Goal: Reasoning with magnetic forces)
Indicate how a negative charge should move in a magnetic field to have a force in the direction specified. (Goal: Honing the right hand rule)
Indicate the direction of the electric field at the origin due to two rods. (Goal: Hone the concept of electric field)
Identify the correct statement(s) regarding a charged particle in a region having both an electric and magnetic field. (Goal: Distinguishing components of the Lorentz force)
Indicate the configurations of uniformly charged rods for which the electric field at the origin is along the x-axis. (Goal: Reason regarding electric fields)
Indicate the configurations of uniformly charged rods for which the electric field at the origin has non-zero components in both the x and y directions. (Goal: Reason regarding electric fields)
Indicate the charge situation that can account for a specified field constraint. (Goal: Reason regarding electric fields)
Identify the induced charge on the surface of a cavity in a conductor. (Goal: Hone the concept of a conductor)
Identify the field inside a charge-free cavity lying inside a conductor. (Goal: Hone the concept of a conductor)
Identify the total surface charge density on a charged cylindrical conductor with a charged wire lying along its axis. (Goal: Reason regarding induced charges and fields)
Compare work done on a charge as it moves along different paths in the presence of other fixed charges. (Goal: Hone the conservative nature of the electrostatic field)
Identify points around a physical dipole having zero electric field. (Goal: Hone the concept of electric field)
Identify the correct graph of the x-component of the electric field. (Goal: Translate among representations)
Identify the correct graph of the x-component of the electric field. (Goal: Relate representations)