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Electronic circuits and components * Course Index * Introduction * About the Author * About this Course * Feedback * Course Navigation * How to use this Course * TINA * Locktronics Fundamentals * Introduction: Fundamentals * Units and Multiples * Electricity * Electronic Principles * Electrical Circuits * Alternating Current * Assessment: Fundamentals Passive Components * Introduction: Passive Components * Resistors * Capacitors * Inductors * Transformers * Batteries, Fuses, Lamps and Switches * Assessment: Passive Components Semiconductors * Introduction: Semiconductors * Diodes * Transistors * Logic Gates * Assessment: Semiconductors Passive Circuits * Introduction: Passive Circuits * Series and Parallel Connections * Kirchoff's Laws ## Kirchoff's Current Law ## Examples: Kirchoff's Current Law ## Worksheet: Kirchoff's Current Law ## Kirchoff's Voltage Law ## Examples: Kirchoff's Voltage Law ## Worksheet: Kirchoff's Voltage Law * Potential and Current Dividers * Passive Time Variant Circuits * Assessment: Passive Circuits Active Circuits * Introduction: Active Circuits * Power Supply Circuits * Operational Amplifier Circuits * Transistor Amplifier Circuits * 555 Timer Circuits * Assessment: Active Circuits Parts Gallery * Introduction: Parts Gallery * Passive Component Images * Semiconductor Images * Other Images * Quizzes |
(:Summary:Contains the 'action' links (like Browse, Edit, History, etc.), placed at the top of the page, see site page actions:) (:comment This page can be somewhat complex to figure out the first time you see it. Its contents are documented at PmWiki.SitePageActions if you need help. :) * Print (:comment (:if group Site,SiteAdmin,Cookbook,Profiles,PmWiki*:) (:comment delete if and ifend to enable backlinks:) * %item rel=nofollow class=backlinks accesskey='$[ak_backlinks]'% [[{*$Name}?action=search&q=link={*$FullName} | $[Backlinks] ]] (:ifend:) :) * Login Kirchoff's Voltage Law<^< Worksheet: Kirchoff's Current Law | Course Index | Examples: Kirchoff's Voltage Law >^>(:nl:) ![]() Kirchhoff's Voltage Law states that the algebraic sum of the potential drops in a closed network (or mesh) is zero. Here again, the term "algebraic" simply indicates that the polarity of each voltage drop as you move around the closed mesh must be taken into account by giving it an appropriate sign, either positive (+) or negative (-). Convention: *Start at the positive terminal of the largest EMF and move clockwise around the circuit. *Voltages acting in the same direction as you move around the circuit are positive(+). *Voltages acting in the opposite direction as you move around the circuit are negative(-). (:nl:)(:table style="clear:both":)
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