ELECTRICAL QUANTITIES:

• Atomic structure, conductors, semiconductors, insulators.
• -Electrical charge, the coulomb, voltage, the volt, current, and the ampere.
• Resistance, the ohm.
• Conductance, the siemen.

• Perform any combination of addition, subtraction, multiplication, and division in either scientific or engineering notation.
• Define conductors, semiconductors and insulators.
• Define electrical charge, potential difference, resistance, and conductance.
• Become familiar with the digital and analog meters.
• Learn to read and use the resistor color code.

• D.C.Voltage source.
• Types of batteries.
• D.C. Current source.
• Resistively, factors affecting resistance.

OHM'S LAW:

• Definition, relationship among V,I,R.
• Calculation of V,I,R (Ohm's Law).
• Power and energy.
• Power in an electric circuit.
• Resistor power ratings.

• Describe the structure of the common types and variable resistors.
• Given colour coded fixed resistors, determine the values and tolerances.
• Define the concept of resistively.
• Describe how to measure correctly the electrical quantities of voltage, current, and resistance.
• Given certain resistance factors and/or resistance determine the value of the missing quantity.
• Become familiar with the dc power supply and setting the output voltage.
• Measure the current in a DC circuit.
• Apply and plot Ohm's Law.
• Determine the total resistance of a series DC circuit using an ohmmeter or an application of Ohm's Law.
• Calculate the total resistance of a series DC circuit and learn how to identify which resistor in a network is series.

• Resistor in series.
• Current in a series circuit.
• Total series resistance. 
• Ohm's Law in series circuits.
• Power in series circuits.
• Voltage sources in series.
• Kirchhoff's voltage law.
• Circuit ground.

• Calculate resistance, current, or voltage drop using Ohm's Law.
• Calculate power dissipation in a resistor and in an electric circuit.
• Given circuit quantities (voltage, current, resistance) choose correct power ratings of resistors.
• Verify Kirchhoff's voltage law
• Becoming increasingly familiar with the use of the DMM and VOM meters

• Concept of voltage source resistance.
• Concept of voltage division.
• Voltage dividers.
• Power supply regulating.

• Verify Kirchhoff's voltage law.
• Given a multisource series circuit determine the equivalent source voltage.
• Define circuit ground and the reason for its importance.
• Troubleshoot a given faulty series circuit.
• Describe the concept of power supply regulation.
• Assemble and troubleshoot an a breadboard the P.S.

• Resistors in parallel.
• Voltage in a parallel circuit.
• Kirchhoff's current law.
• Total parallel resistance.
• Conductance's in parallel circuits.
• Concept of current division.
• Current dividers.
• Ohm's law in parallel circuits.
• Power in parallel circuits.
• Application of parallel circuits.

• Verify Kirchoff's current law.
• Describe the concept of current division.
• Calculate the current through two branch resistance using ratios.
• Given required conditions, calculate the resistance's needed to produce a requested current divider.
• Troubleshoot a faulty parallel circuit.
• Determine the total resistance of a parallel network using an ohmmeter or an application of Ohm's law.
• Learn to identify which resistors of an network are in parallel.

• Identification of series parallel relationship.
• Analysis of parallel circuits.
• Ladder networks.
• Potentiometer loading.
• Power in series parallel circuits.
• Voltage dividers with resistive loads.

• Calculate voltage at any point in the circuit with respect to a given reference point or ground.
• Given a single voltage source, design a voltage divider needed to provide required voltages for resistive loads.
• Troubleshoot a faulty series parallel circuit

• D'Arsonval movement.
• The ammeter.
• The voltage.
• The ohmmeter.
• Meter loading effects.

• Design a multi-stage shunt ammeter.
• Given the FSD current and the resistance of the movement (RM) calculate the value of the multiplier.
• Design a multi-range voltmeter
• Define voltmeter sensitivity.
• Describe and calculate the loading effect of a voltmeter in a circuit.
• Understand how to use a potentiometer to control potential levels

• The voltage source.
• The current source.
• Source conversions.
• The superposition theorem.
• Thevenin's theorem.

• Describe the concept of a constant voltage source and constant current source.
• Perform conversions from a voltage source to a current source and vice versa.
• Describe and use the superposition theorem.
• Determine Thevenin's (Rth) and (Eth).
• Apply Kirchhoff's voltage and current laws, the current divider rule, and the voltage divider.

MAXIMUM POWER TRANSFER:

• Convert a Thevenin's equivalent circuit into Norton's equivalent circuit and vice versa.
• Using Thevenin's theorem, prove the maximum power transfer theorem.
• Determine that the superposition theorem cannot be applied to nonlinear function.
• Demonstrate that maximum power transfer to a load is defined by the condition RL = Rth.

• Concept of capacitance.
• The basic capacitor.
• Type of capacitors.
• Capacitors in parallel.
• Capacitors in DC circuits.
• The RC time constant.

• Define capacitance in terms of charge and potential (C=Q/V).
• Given the capacitance and the resulting potential  calculate the energy in joules stored by a capacitor.
• Determine the equivalent capacitance of two or more capacitors in series.
• Describe capacitor voltage divider.
• Using exponential curve equations (charge or discharge), calculate the unknown variable, such as (i, vC, t, R, C) if sufficient number of other values are given.

• Electromagnetic induction.
• Applications.
• Concept of self inductance.
• The basic inductor.
• Type of inductors.
• Inductor in series, parallel.
• Inductors in DC circuits.
• The LR time constant.

• Describe physical characteristics of an inductor and the factors governing inductance.
• Describe types of inductors.
• Using exponential curve equations (charge or discharge), calculate the unknown variables, such as (i, vR, vL, t, R, L) if sufficient number of other variable values are given.

• Build regulated power supply