10605119Digital Circuit Principles
Course Information
Description
Course covers digital logic circuits including basic gates, flip-flops, arithmetic circuits, counters, shift registers, multiplexing circuits, comparators, and other similar devices. Other topics include logic families; Boolean concepts; and number systems. Lab work includes individual project design, layout, construction, testing, and documentation.
Total Credits
3
Course Competencies
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Apply circuit minimization techniquesAssessment StrategiesBy submitting Boolean Algebra problem setBy building an independently selected Boolean Algebra Application used to solve a simple problem (L)By submitting a Boolean Algebra Technical Report of the selected application (L)By submitting Karnaugh maps problemsBy building an independently selected Karnaugh Map Application used to solve a simple problem (L)By submitting a Karnaugh Maps technical report of the selected application (L)By actively participating in class on topics related to circuit minimization techniquesBy answering circuit minimization related problems in an exam completed by the due dateCriteriaBoolean algebra problem includes the correct transformation of logic statements into equivalent Boolean algebra expressionsBoolean Algebra problem includes the simplest expressionBoolean algebra problem includes the correct expressions to a specific logical circuitBoolean algebra problem includes the corresponding circuit to a given Boolean expressionBoolean algebra problem incudes all intermediate steps to achieve the right solutionsBoolean algebra problem solutions are clearly writtenBoolean algebra problem solutions are neatly presentedBoolean Algebra Application Circuit is fully operationalBoolean Algebra Application Circuit is correctly color codedBoolean Algebra Application Report is neatly presentedBoolean Algebra Application Report is clearly writtenBoolean Algebra Application Report is typed in a word processor with embedded schematics and figuresKarnaugh maps problems include the correct simplified circuitKarnaugh maps problems include the correct K-map associated with a Boolean expressionKarnaugh maps problems include the correct K-Map associated with a logical expressionKarnaugh maps problems include all intermediate steps to achieve the right solutionKarnaugh maps problem solutions are clearly writtenKarnaugh maps problem solutions are neatly presentedKarnaugh Maps Application Circuit is fully operationalKarnaugh Maps Application Circuit is correctly color codedKarnaugh Maps Application Report is neatly presentedKarnaugh Maps Application Report is clearly writtenKarnaugh Maps Application Report is typed in a word processor with embedded schematics and figuresyou arrive in class on timeyou listen attentively during class
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Develop encoder/decoder circuitsAssessment StrategiesBy submitting Encoder/Decoder problem set completed independently by the due date.By submitting Encoder/Decoder Multisim simulation completed independently by the due dateBy independently designing an Encoder/Decoder circuit that solves a real life application by the due dateBy submitting and Encoder/Decoder Design Report typed in a wordprocessor by the due dateBy answering Encoder/Decoder problems in an exam completed by the due dateBy actively participating in class on topics related to Encoder/Decoder circuitsCriteriaEncoder/Decoder problem include the correct answerEncoder/Decoder problem are neatly presentedEncoder/Decoder problem includes a reflection on learningEncoder/Decoder problem are clearly writtenencoder/decoder circuit simulations are fully operationencoder/decoder circuit simulations include the correct answersencoder/decoder application project includes a fully operational circuit that solves a real life applicationencoder/decoder application project includes embedded schematics and figuresencoder/decoder application project is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop multiplexer/de-multiplexer circuitsAssessment StrategiesBy submitting MUX/DMUX related problems completed independently by the due date.By submitting MUX/DMUX related Multisim simulations completed independently by the due date.By independently designing a simple digital circuit including MUX/DMUX that solves a real life application by the due dateBy submitting an MUX/DMUX design report typed in a wordprocessor by the due dateBy answering MUX/DMUX problems in an exam completed by the due dateBy actively participating in class on topics related to MUX/DMUX circuitsCriteriaMUX/DMUX problems include the correct answerMUX/DMUX problems are clearly writtenMUX/DMUX problems are neatly presentedMUX/DMUX circuit simulations are fully operationalMUX/DMUX circuit simulations include the correct answersMUX/DMUX application project includes a fully operational circuit that solves a real life applicationMUX/DMUX application project includes embedded schematics and figuresMUX/DMUX application project is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop comparator circuitsAssessment StrategiesBy submitting comparator(s) related problems completed independently by the due date.By submitting comparator(s) problem related Multisim simulations completed independently by the due date.By actively participating in class activitiesBy independently designing a simple digital circuit including comparator(s) that solves a real life application by the due dateBy submitting a comparator(s) circuit design report typed in a wordprocessor by the due dateBy answering comparator problems in an exam completed by the due dateBy actively participating in class on topics related to comparator circuitsCriteriaComparator(s) problems include the correct answerComparator(s) problems are neatly presentedComparator(s) problems are clearly writtenComparator(s) circuit computer simulations are fully operationComparator(s) circuit computer simulations include the correct answersComparator(s) circuit application project includes a fully operational circuit that solves a real life applicationComparator(s) circuit application project report includes embedded schematics and figuresComparator(s) circuit application project report is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop flip-flop circuitsAssessment StrategiesBy submitting flip-flop related problems completed independently by the due date.By submitting flip-flop problem related Multisim simulations completed independently by the due date.By actively participating in class activitiesBy independently designing a simple digital circuit including flip-flop that solves a real life application by the due dateBy submitting a flip-flop circuit design report typed in a wordprocessor by the due dateBy answering flip-flop problems in an exam completed by the due dateBy actively participating in class on topics related to flip-flop circuitsCriteriaFlip-Flop problems include the correct answerFlip-Flop problem include the correct timing diagramFlip-Flop problems are neatly presentedFlip-Flop problems are clearly writtenFlip-Flop circuit computer simulations are fully operationFlip-Flop circuit computer simulations include the correct answersFlip-Flop circuit application project includes a fully operational circuit that solves a real life applicationFlip-Flop circuit application project report includes embedded schematics and figuresFlip-Flop circuit application project report is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop digital oscillators (multivibrators) circuitsAssessment StrategiesBy submitting digital oscillator(s) related problems completed independently by the due date.By submitting digital oscillator(s) problem related Multisim simulations completed independently by the due date.By actively participating in class activitiesBy independently designing a simple digital circuit including digital oscillator(s) that solves a real life application by the due dateBy submitting a digital oscillator(s) circuit design report typed in a wordprocessor by the due dateBy answering digital oscillators problems in an exam completed by the due dateBy actively participating in class on topics related to digital oscillators circuitsCriteriaDigital Oscillator(s) problems include the correct answerDigital Oscillator(s) problem include the correct timing diagramDigital Oscillator(s) problems are neatly presentedDigital Oscillator(s) problems are clearly writtenDigital Oscillator(s) circuit computer simulations are fully operationDigital Oscillator(s) circuit computer simulations include the correct answersDigital Oscillator(s) circuit application project includes a fully operational circuit that solves a real life applicationFlip-Flop/Register(s) circuit application project report includes embedded schematics and figuresFlip-Flop/Register(s) circuit application project report is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop three state devicesAssessment StrategiesBy submitting three state related problems completed independently by the due date.By submitting three state problem related Multisim simulations completed independently by the due date.By actively participating in class activitiesBy independently designing a simple digital circuit including three state(s) that solves a real life application by the due dateBy submitting a three state circuit design report typed in a wordprocessor by the due dateBy actively participating in class on topics related to three state circuitsBy answering three state problems in an exam completed by the due dateCriteriathree state problems include the correct answerthree state problems are neatly presentedthree state problems are clearly writtenthree state circuit computer simulations are fully operationthree state circuit computer simulations include the correct answersthree state circuit application project includes a fully operational circuit that solves a real life applicationthree state circuit application project report includes embedded schematics and figuresthree state circuit application project report is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop asynchronous/synchronous countersAssessment StrategiesBy submitting asynchronous/synchronous related problems completed independently by the due date.By submitting asynchronous/synchronous state diagram problems completed independently by the due date.By submitting asynchronous/synchronous problem related Multisim simulations completed independently by the due date.By actively participating in class activitiesBy independently designing a simple digital circuit including asynchronous/synchronous that solves a real life application by the due dateBy submitting a asynchronous/synchronous circuit design report typed in a wordprocessor by the due dateBy answering asynchronous/synchronous problems in an exam completed by the due dateBy actively participating in class on topics related to asynchronous/synchronous circuitsCriteriaAsynchronous/Synchronous counter problems include the correct answerAsynchronous/Synchronous counter problems are neatly presentedAsynchronous/Synchronous counter problems are clearly writtenAsynchronous/Synchronous counter state diagrams have the right number of statesAsynchronous/Synchronous state diagrams problems have all states correctly labeledAsynchronous/Synchronous counter circuit computer simulations are fully operationAsynchronous/Synchronous counter circuit computer simulations include the correct answersAsynchronous/Synchronous counter circuit application project includes a fully operational circuit that solves a real life applicationAsynchronous/Synchronous counter circuit application project report includes embedded schematics and figuresAsynchronous/Synchronous counter circuit application project report is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop shift registers circuitsAssessment StrategiesBy submitting shift registers related problems completed independently by the due date. (H)By submitting shift registers problem related Multisim simulations completed independently by the due date. (H)By actively participating in class activitiesBy independently designing a simple digital circuit including shift registers that solves a real life application by the due date (L)By submitting a shift registers circuit design report typed in a wordprocessor by the due date (L)By answering shift registers problems in an exam completed by the due dateBy actively participating in class on topics related to shift registers circuitsCriteriaShift registers problems include the correct answerShift registers problems are neatly presentedShift registers problems are clearly writtenShift registers circuit computer simulations are fully operationShift registers circuit computer simulations include the correct answersShift registers circuit application project includes a fully operational circuit that solves a real life applicationShift registers circuit application project report includes embedded schematics and figuresShift registers circuit application project report is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop Analog to Digital (A/D) and Digital to Analog (D/A) conversion circuitsAssessment StrategiesBy submitting D/A-A/D related problems completed independently by the due date.By submitting D/A-A/D problem related Multisim simulations completed independently by the due date.By actively participating in class activitiesBy independently designing a simple digital circuit including D/A-A/D that solves a real life application by the due dateBy submitting a D/A-A/D circuit design report typed in a wordprocessor by the due dateBy answering A/D and D/A converter problems in an exam completed by the due dateBy actively participating in class on topics related to A/D and D/A converter circuitsCriteriaD/A-A/D problems include the correct answerD/A-A/D problems are neatly presentedD/A-A/D problems are clearly writtenD/A-A/D circuit computer simulations are fully operationD/A-A/D circuit computer simulations include the correct answersD/A-A/D circuit application project includes a fully operational circuit that solves a real life applicationD/A-A/D circuit application project report includes embedded schematics and figuresD/A-A/D circuit application project report is clearly writtenyou arrive in class on timeyou listen attentively during class
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Develop ROM memory circuitsAssessment StrategiesBy submitting ROM related problems completed independently by the due date.By submitting ROM problem related Multisim simulations completed independently by the due date.By actively participating in class activitiesBy programming a ROM memory chipBy demonstrating a programmed ROM memory chip interacting with other digital circuitryBy answering ROM memory problems in an exam completed by the due dateBy actively participating in class on topics related to ROM memory circuitsCriteriaROM memory problems include the correct answerROM memory problems are neatly presentedROM memory problems are clearly writtenROM memory circuit computer simulations are fully operationROM memory circuit computer simulations include the correct answersROM memory chip program performs the correct task (L)ROM memory circuit is correctly color coded (L)you arrive in class on timeyou listen attentively during class
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Develop computer programmable logic circuitsAssessment StrategiesBy programming computer programmable logic devices (CPLD)By submitting a CPLD related problems completed independently and by the due dateBy answering CPLD problems in an exam completed by the due dateBy actively participating in class on topics related to CPLD circuitsCriteriaCPLD program compiles without errorsCPLD program downloads into the target hardwareCPLD target circuit correctly performs the intended taskCPLD problems include the correct answerCPLD problems are clearly writtenCPLD problems are neatly presentedyou arrive in class on timeyou listen attentively during class
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Analyze components data sheetsAssessment StrategiesSubmitting a Circuit Description ReportSubmitting a Circuit Data SheetApplying Data Sheet Relevant Information to an assigned circuit schematicCriteriaCircuit description report includes circuit pinoutCircuit description report includes power characteristicsCircuit description report included circuit behavior descriptionCircuit description report I/O voltage levelsCircuit description report includes manufacturers nameCircuit description report includes unit priceCircuit description report must be clearly writtenCircuit description report must be neatly presentedData Sheet Relevant Information is applied by identifying missing connections in the assigned schematicCircuit Data Sheet is independently obtained
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Assemble digital circuit from schematic.Assessment StrategiesBy demonstrating an operational version of the specific digital circuit schematic completed by the due dateBy submitting an expected results (ER) sheet prior to assembling an assigned circuit schematicBy submitting a laboratory questions/measurements (Q/M) sheet by the due dateCriteriaER sheet contains an accurate view of the expected circuit resultsOperational circuit performs the function it was designed to accomplishOperational circuit was assembled using color coded wiresQ/M sheet includes is completely filledQ/M sheet includes measurements that fall within 10% of the correct/expected valuesQ/M sheet is neatly presentedQ/M sheet is clearly written
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Troubleshoot digital circuitsAssessment StrategiesBy submitting an error correction (EC) addendum to the circuit schematics requiring modificationsBy articulating your troubleshooting thought process to your instructorBy demonstrating an operational version of the troubleshooted circuitCriteriaTroubleshooting articulation is presented clearlyTroubleshooting articulation is presented logicallyFinal circuit is assembled and fully operationalError Correction Addendum contains the operational version of the basic logic circuit schematic