Learners review Kirchhoff's Voltage Law and work six practice problems. Feedback is given.

The learner will calculate basic circuit resistance.

The learner will calculate input and output circuit resistance for the Inverting Op-Amp configuration.

Learners follow a methodical approach for the dc analysis of series-parallel circuits.

In this learning activity you'll build a resistor's color code based on the bands.

The learner will convert various values to engineering notation.

Learners will identify the number of significant digits in practice problems.

The learner will describe the non-inverting op-amp configuration and calculate the circuit gain.

The learner will represent very large and very small numbers in engineering notation.

Describe the inverting op-amp configuration and calculate the circuit gain.

The learner will examine the basic characteristics of the operational amplifier integrated circuit and solve for Vout.

In this interactive and animated object, learners examine the operation of a semiconductor diode when it is forward and reverse biased. A brief quiz completes the activity.

Students study the concept that the voltage drop across a series circuit resistor is proportional to its resistance. They then complete a brief quiz.

In this animated object, learners study how the internal parts of an AC synchronous motor interact with magnetic fields to cause rotation. A short quiz completes the activity.

In this animated object, learners examine how the rotation of an induction AC motor's armature slips behind the synchronous rotational speed of the stator's field to create magnetic fields. These fields interact and produce torque. A quiz completes the activity.

Learners study the interaction between the conductors of the stator and the armature inside a DC motor, which causes the shaft to rotate. A short quiz completes the activity.

In this animated object, learners examine the design of a ladder circuit that provides manual control to a water pumping system. Students also study modifications to the circuit as the complexity of the system increases.

The learner will be able to represent steady-state AC sinusoidal signals using phase vectors, which will lead to a simplified technique of analyzing AC circuits in a very similar way that we analyze DC circuits.

Use Ohm's law, Watt's law, and the power equation to derive formulas for the DC power wheel.

The learner will apply the three formulas used to find the total resistance of three types of parallel resistor circuit configurations.

Learners view animations showing how to change the connections to cause a DC motor to reverse its rotation. A short quiz completes the activity.

Learners examine the operation of a DC Shunt motor and its characteristics. A quiz completes the activity.

In this interactive lesson, students view the operation of a solenoid and read about its application. A brief assessment concludes the activity.

Learners examine the internal parts of a DC electrical motor and then text their knowledge in a drag-and-drop exercise.

Understand the op-amp buffer configuration and calculate basic circuit impedance.