In this interactive object, learners examine how voltages and currents vary in a parallel LC circuit as the applied frequency changes.

In this interactive object, learners view various components of gears and read descriptions of them. Learners then identify the location of each of these components in a drag-and-drop exercise.

In this interactive object, learners solve for total resistance and current, the current through each resistor, the voltage across each resistor, and the power dissipated.

In this interactive object, learners work 10 problems covering resistors, voltage, and current.

In this interactive object, students answer 10 questions covering Ohm's Law and Power Law.

Learners use two calculations to prepare a graphical solution to the biasing of bipolar junction transistors and junction field effect transistors. This method eliminates the problem of having to re-calculate the operational Q point when dealing with hard saturation.

Learners read a description of the DC offset function, the 50 ohm and 600 ohm output terminals, and the TTL/CMOS output terminal.

Students calculate current, phase angle, resistor voltage, inductor voltage, and power.

The ohmic region of the E-MOSFET is identified. Formulas are given to determine the proper operation in the ohmic region. An example of circuit analysis is also given.

In this interactive object, learners determine the Vp, Vp-p, Vrms, Vavg, and the frequency of a sine wave that is displayed on an oscilloscope screen.

In this learning activity you'll review the steps for determining the total capacitance of a parallel circuit and work practice problems.

In this animated and interactive object, learners calculate the area and centroid of a quadrant.

Students view the formulas to be used to convert a parallel impedance to a series impedance.

Learners examine first and second approximations and view examples of a "stiff" current source.

Learners follow steps to calibrate a transmitter used in process control applications. A brief quiz completes the activity.

Learners examine the wiring of the primary components of the three types of DC motors, series, shunt, and compound. The operational characteristics of each type of motor are described. A quiz completes the activity.

In this interactive object, learners determine the Vp, Vp-p, Vrms, Vavg, and the frequency of a sine wave that is displayed on an oscilloscope screen.

Learners read a step-by-step approach on how to connect an ohmmeter when making measurements in this interactive lesson.

In this animated activity, learners examine the conductivity of a solution and how its properties affect measurements to determine concentration levels. A brief quiz completes the learning object.

In this animated activity, learners examine how the speed of a motor may change if the voltage from the power source fluctuates due to power line irregularities. This lesson has audio content.

Learners study an animation that shows how a battery charge reduces over time and when varying resistance values are placed in a series circuit. Ten review questions complete the activity.

In this animated activity, learners examine how a voltage is induced into a conductor when the conductor cuts across magnetic flux lines. They also view the four factors that determine how much voltage is generated. A brief quiz completes the learning object.

Learners analyze an emitter-biased npn transistor circuit. A "help" screen is available.

Students follow the steps for finding the total impedance for a series-parallel circuit. Several examples are given.

Students read an explanation of the common-source and source-follower amplifiers. Gain formulas are developed and an example is given.