
8. Source transformation & Resistor combinations
... • Since the open circuit voltage and the short circuit current determine where the I-V line crosses both axes, they completely define the line. • Any circuit that has the same I-V characteristics is an equivalent circuit. ...
... • Since the open circuit voltage and the short circuit current determine where the I-V line crosses both axes, they completely define the line. • Any circuit that has the same I-V characteristics is an equivalent circuit. ...
Circuit Review - Mayfield City Schools
... A student connects six 1-ohm light bulbs in series to a 9-volt battery. What is the total circuit current? 0.67 amperes 1.5 amperes 9 amperes 54 amperes ...
... A student connects six 1-ohm light bulbs in series to a 9-volt battery. What is the total circuit current? 0.67 amperes 1.5 amperes 9 amperes 54 amperes ...
Combinations of resistors and non-ideal meters
... Recall that to measure the voltage drop across a given resistor, you place a voltmeter in parallel with it. The resistance of the voltmeter should be large so that it does not change significantly the current through the resistor (and in turn the voltage drop across the resistor). Create a circuit c ...
... Recall that to measure the voltage drop across a given resistor, you place a voltmeter in parallel with it. The resistance of the voltmeter should be large so that it does not change significantly the current through the resistor (and in turn the voltage drop across the resistor). Create a circuit c ...
Zetex - DN78, ZXSC310 with reverse polarity protection
... always reliable. This paper describes methods of electronic reverse protection, without efficiency loss, for the ZXSC series ICs and related LED flashlight application circuits. Circuit problems caused by the reverse polarity battery If a negative voltage appears at the input terminal of Figure 1 th ...
... always reliable. This paper describes methods of electronic reverse protection, without efficiency loss, for the ZXSC series ICs and related LED flashlight application circuits. Circuit problems caused by the reverse polarity battery If a negative voltage appears at the input terminal of Figure 1 th ...
PPT - HRSBSTAFF Home Page
... • The current also depends on the amount of resistance that the wire offers to the electrons for a given voltage V. We define a quantity called resistance R such that V = I R (Ohm’s Law) • The unit of resistance is the ohm which is represented by the Greek capital omega (). ...
... • The current also depends on the amount of resistance that the wire offers to the electrons for a given voltage V. We define a quantity called resistance R such that V = I R (Ohm’s Law) • The unit of resistance is the ohm which is represented by the Greek capital omega (). ...
Electric_Circuits -3
... The 6Ω and the 4Ω resistors are in series with each other, the branch they are on is parallel to the 1Ω resistor. The parallel branches between B & D are in series with the 2Ω resistor. The 5Ω resistor is on a branch that is parallel with the BC parallel group and its series 2Ω buddy. The total resi ...
... The 6Ω and the 4Ω resistors are in series with each other, the branch they are on is parallel to the 1Ω resistor. The parallel branches between B & D are in series with the 2Ω resistor. The 5Ω resistor is on a branch that is parallel with the BC parallel group and its series 2Ω buddy. The total resi ...
ALTERNATING CURRENT CIRCUITS Capacitors and Capacitive
... used by the capacitor. When analyzing AC circuits, it is sometimes helpful to use a phasor diagram. Phasors are rotating arrows that represent maximum voltage and maximum current through different circuit components. ...
... used by the capacitor. When analyzing AC circuits, it is sometimes helpful to use a phasor diagram. Phasors are rotating arrows that represent maximum voltage and maximum current through different circuit components. ...
Network analysis (electrical circuits)

A network, in the context of electronics, is a collection of interconnected components. Network analysis is the process of finding the voltages across, and the currents through, every component in the network. There are many different techniques for calculating these values. However, for the most part, the applied technique assumes that the components of the network are all linear.The methods described in this article are only applicable to linear network analysis, except where explicitly stated.