silabo de carrera de electricidad sistemas digitales 2 silabo

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12-01-2025

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Silabo de Carrera de Electricidad: Sistemas Digitales 2

This syllabus outlines the curriculum for Sistemas Digitales 2 (Digital Systems 2) within an Electrical Engineering career path. The course builds upon the foundational knowledge acquired in Sistemas Digitales 1, delving deeper into advanced digital design principles and applications.

Course Description:

This course provides a comprehensive exploration of advanced digital system design and implementation. Students will expand their understanding of combinational and sequential logic circuits, explore various memory technologies, and delve into the design and analysis of complex digital systems using Hardware Description Languages (HDLs) like VHDL or Verilog. The course emphasizes practical application through projects and simulations, fostering problem-solving skills crucial for professional electrical engineering.

Course Objectives: Upon successful completion of this course, students will be able to:

• Master advanced combinational logic design techniques: Including the optimization of Boolean functions using Karnaugh maps and other minimization techniques.
• Design and analyze various sequential logic circuits: Focusing on state machines, counters, registers, and memory systems.
• Understand and apply different memory technologies: RAM, ROM, Flash memory, and their respective applications.
• Proficiently utilize HDLs (VHDL or Verilog) for digital system design: Including simulation, synthesis, and implementation.
• Design and implement complex digital systems: Integrating various components and addressing timing and synchronization issues.
• Troubleshoot and debug digital circuits: Utilizing simulation tools and practical laboratory techniques.

Course Content:

Module 1: Advanced Combinational Logic Design:

• Review of Boolean Algebra and Logic Gates: A quick refresher on fundamental concepts.
• Karnaugh Maps and Minimization Techniques: Advanced techniques for simplifying Boolean expressions.
• Multiplexers, Demultiplexers, and Encoders/Decoders: Detailed analysis and design applications.
• Arithmetic Circuits: Adders, subtractors, multipliers, and ALUs.

Module 2: Sequential Logic Design and State Machines:

• Flip-Flops and Latches: Analysis and design of various types of flip-flops.
• Counters: Asynchronous and synchronous counters, design and applications.
• Registers: Shift registers, parallel-in/parallel-out registers, and their uses.
• Finite State Machines (FSMs): Design and implementation of Moore and Mealy machines.
• State Minimization Techniques: Optimization of state diagrams.

Module 3: Memory Systems and Data Storage:

• RAM Technologies: SRAM, DRAM, and their characteristics.
• ROM Technologies: PROM, EPROM, EEPROM, and their applications.
• Flash Memory: Organization and operation principles.
• Memory Interfacing: Connecting memory devices to microprocessors.
• Cache Memory: Fundamentals and its role in system performance.

Module 4: Hardware Description Languages (HDLs):

• Introduction to VHDL/Verilog: Syntax, data types, and basic constructs.
• Modeling Combinational and Sequential Logic: Using HDLs to describe digital circuits.
• Simulation and Verification: Testing and debugging using simulation tools.
• Synthesis and Implementation: Generating netlists and programming FPGAs/ASICs.

Assessment:

• Laboratory Exercises (40%): Practical implementation and testing of designed circuits.
• Midterm Exam (30%): Covering Modules 1 and 2.
• Final Project (30%): Design and implementation of a complex digital system using HDLs.

Required Materials:

• Textbook: (Specify relevant textbook(s) with ISBNs)
• Software: (Specify simulation and HDL synthesis software, e.g., ModelSim, Xilinx ISE/Vivado)

Instructor: (Include instructor's name, contact information, and office hours)

This syllabus is subject to change at the instructor's discretion. Any modifications will be communicated to the students in a timely manner.