EE1210 Outcomes

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Expected Learning Outcomes

Upon successfully completing Logic System Design, students will have, at a minimum, the qualities listed in the expected learning outcomes below. These outcomes support both the Seattle Pacific University goals and the Engineering Program Goals.
 

bulletUnderstanding of basic digital concepts
bulletAttributes
bulletAbility to distinguish between digital and analog signals and data
bulletAbility to compare and contrast digital and analog solutions to a problem
bulletUnderstanding of clocks and timing diagrams
bulletSPU Goals: Competence
bulletEngineering Goals: Competent in core disciplines
bulletUnderstanding of basic combinational digital logic
bulletAttributes
bulletAbility to design combinational logic circuits
bulletAbility to analyze, transform, and minimize combinational logic circuits
bulletAbility to apply combinational logic circuits to real-world problems
bulletSPU Goals: Competence
bulletEngineering Goals: Competent in core disciplines
bulletUnderstanding of advanced combinational digital logic
bulletAttributes
bulletAbility to design circuits using advanced combinational logic blocks
bulletUnderstanding of multiplexors, decoders, encoders, and other advanced combinational logic blocks
bulletSPU Goals: Competence
bulletEngineering Goals: Competent in core disciplines
bulletUnderstanding of basic mathematical circuits
bulletAttributes:
bulletUnderstanding of binary mathematical functions
bulletAbility to convert between binary, decimal, and hexadecimal represenations
bulletAbility to manipulate two's complement negative numbers
bulletAbility to design and analyze simple adders and multipliers using combinational logic
bulletSPU Goals: Competence
bulletEngineering Goals:
bulletUnderstanding of basic sequential digital logic
bulletAttributes:
bulletAbility to design circuits using latches and flipflops
bulletAbility to analyze the timing of sequential circuits
bulletUnderstanding of how to construct latches and flipflops out of simple combinational logic elements
bulletSPU Goals: Competence
bulletEngineering Goals: Competent in core disciplines
bulletUnderstanding of counters and finite state machines
bulletAttributes:
bulletAbility to analyze an existing counter/fsm
bulletAbility to design a counter/fsm to solve a real-world problem
bulletAbility to build a counter/fsm out of basic combinational and sequential logic building  blocks
bulletSPU Goals: Competence
bulletEngineering Goals: Competent in core disciplines
bulletAbility to build combinational logic circuits out of standard TTL/CMOS parts
bulletAttributes:
bulletSPU Goals: Competence
bulletEngineering Goals: Prepared for a variety of post-graduate experiences, Competent in core disciplines
bulletAbility to use modern CAD tools for logic design
bulletAttributes:
bulletFamiliarity with modern CPLDs and FPGAs
bulletAbility to use CAD tools to design combinational  and sequential circuits in a CPLD
bulletAbility to use CAD tools to analyze combinational and sequential circuits in a CPLD
bulletAbility to use VHDL to design medium-size circuits in a CPLD
bulletSPU Goals: Competence
bulletEngineering Goals: Prepared for a variety of post-graduate experiences, Competent in core disciplines

Kevin Bolding September 17, 2007