
Comprehensive exploration of digital circuits, from basic logic to advanced systems. Covers combinational and sequential circuits, arithmetic operations, state machines, and programmable logic devices.

The course is about basic electronic circuits, both analog and digital. In the analog part, diode circuits, BJT amplifiers, Op-Amp circuits will be covered. In the digital part, combinatorial and sequential circuits will be covered.

Explore electronic circuits, from basic components to advanced concepts like amplifiers and digital systems. Gain practical skills in circuit analysis and design.

Comprehensive exploration of digital circuits and systems through 53 lectures, covering fundamental concepts to advanced applications in electronic design and analysis.

Explore digital circuits, from discrete components to CMOS and flipflops, with insights on totem pole outputs, MOSFETs, and parts availability.

Learn to wire, program, and utilize an EEPROM to replace combinational logic circuits, including practical applications like a 7-segment decoder. Hands-on exploration of electronic components and data sheets.

Explore ALU troubleshooting techniques, learn from common mistakes, and gain insights into problem-solving strategies for 8-bit computer components.

Explore flip-flops, serial protocols, and digital circuit concepts. Learn about state diagrams, conversion between flip-flop types, registers, and various serial communication interfaces.

Explore latches and flip-flops in digital circuits, covering RS latches, D flip-flops, and JK flip-flops. Learn about state storage elements and programmable logic devices.

Explore programmable logic devices like PALs, CPLDs, and FPGAs. Learn implementation steps and architecture of XC9500XL series, using the Bora digital trainer board for hands-on experience.

Explore multiplexors, demultiplexors, decoders, and 3-state buffers in digital circuits. Learn equations, applications, and practical implementations of these essential components.

Learn about Gray codes, Karnaugh maps, and digital circuit minimization techniques for efficient logic design and optimization.

Explore propagation and contamination delays in digital circuits, parasitic capacitances, and input capacitances for estimating CMOS delay.

Explore a formal definition of digital circuits, emphasizing compositional correctness and timing analysis through simple denotations and homomorphisms in Agda.

Explore Elmore delay in digital CMOS circuits, understanding its significance and applications in circuit analysis and design.

Learn Boolean algebra fundamentals and digital circuit simplification techniques, including key rules and operations for efficient logic design and analysis.

Learn about number systems in digital circuits, including decimal, binary, and hexadecimal conversions. Explore power representations and practical examples for a solid foundation in digital logic.

Introduction to VHDL for digital circuits, covering syntax, modules, assignments, entities, processes, and state machines. Includes practical examples and resources for further learning.

Comprehensive overview of Finite State Machines, covering problem understanding, diagram creation, state assignment, flip-flop selection, and implementation specifics for both Mealy and Moore machines.

Explore keyboard interface hardware design and implementation, focusing on key components, signal processing, and integration with computer systems.

Explore the journey from basic digital circuits to a functional theoretical microprocessor with veteran computer designer Voja Antonic in this engaging and informative presentation.