Lectures related to Finite State Machines: Medvedev vs. Moore vs. Mealy

Covers fundamental concepts of logic systems, including sequential and combinatorial circuits, state diagrams, and finite state machines.

Introduces finite state machines, covering basics, design, and practical applications like decoders and encoders.

Explains the design and synthesis of Finite State Machines in logic systems.

Covers the design and synthesis of Finite State Machines, emphasizing completeness, consistency, and ghost states.

Explores Boolean algebra, optimization, sequential systems, and finite state machines design.

Provides an overview of finite state machines, covering their design, analysis, and practical applications in digital systems.

Covers finite state machines, their types, structures, and practical applications in digital systems.

Explains the steps in FSM design, including transition and code table creation.

Covers the design and synthesis of Finite State Machines, including completeness, consistency, ghost states, and transition tables.

Explores synchronous logic circuits, state-based modeling, optimization techniques, and finite-state machine state minimization.

Compares BJT and FET operation in logic systems, discusses TTL vs CMOS technologies, and explores Set-Reset Latch functionality.

Covers the basics of logic systems, including digital versus analog circuits, logic operators, truth tables, and Boolean algebra.

Explores synchronous logic circuits, modeling techniques, state minimization, and finite-state machine optimization for area reduction.

Provides an overview of flip-flops, registers, and counters in digital systems.

Explores SR latch, D flip-flop, multiplexers, XOR gates, and tristate gates in logic systems.

Covers the implementation of SR and D latches and flip-flops.

Explores Karnaugh maps, TTL gates, analog aspects of digital logic, and prime implicants.

Covers Boolean algebra properties, optimization techniques, and the importance of valid groups in Karnaugh maps.

Explores Karnaugh maps, grouping rules, and transistor logic in logic systems.

Explains SR latch circuits, D-latches, D-flip-flops, clock signals, and multiplexers in logic systems.