The Complete Course of PSpice and PCB 2025

Explore basic electrical components, including resistors, capacitors, inductors, DC and AC sources, switches, and transformers. Learn schematic capture and library components to draw, edit, and generate DC/AC waveforms in circuits.

Explore schematic capture in the PSpice environment, building RL and RLC circuits with DC and AC sources, switches, and library components for accurate spice simulation.

Set up and run DC, AC, and transient simulations in PSpice; interpret output files and waveforms and explore advanced techniques for reliability, such as temperature and Monte Carlo analysis.

Learn to build and analyze an RC circuit in PSpice, placing components, wiring the schematic, and performing transient and ac sweep analyses to study Vin, Vout, and gain.

Assemble an RC circuit in PSpice, set Vin and Vout, run transient and ac sweep analyses, view and customize waveforms, and analyze gain.

explore advanced spice simulations with parameter sweeps, temperature analysis, and Monte Carlo reliability studies, linking theory to practical RC, RLC and transistor circuits for robust design.

Build a BJT circuit in PSpice, run a dc sweep and temperature analysis, observe waveforms, customize traces, and paste the plots into a Word document.

Explore digital components and circuits, including logic gates, flip flops, and counters, and learn to set up mixed signal simulations with optimization and troubleshooting of digital analog integration.

Explore designing and simulating digital circuits in PSpice, including logic gates, flip flops, and 74-series chips, with digital waveforms, mixed signal analysis, and universal nand/nor gate techniques.

Explore advanced mixed signal analysis, covering complex digital analog interactions, troubleshooting methods, and optimization of adc, dac, mcus, pwm, and signal integrity in integrated systems.

Place the JK flip-flop and digital stimuli in the schematic, connect the clock, and perform mixed-signal analysis to generate and view the Q and Q-bar waveforms via transient simulation.

Design a four-bit synchronous up counter using the 74193, a four-bit binary up-down counter. Initialize with preset or clear and connect the separate up clock inputs to the 7474.

Explore sensitivity and optimization analyses in PSpice, assessing component tolerance with Monte Carlo and parameter sweeps to optimize gain, bandwidth, power, and signal integrity.

Build a sensitivity analysis circuit in PSpice and run DC and Monte Carlo analyses. Adjust resistors, capacitors, and tolerances, then review current, voltage, power, and temperature results.

Explore custom components, behavioral modeling, and advanced device models in PSpice to tailor circuit behavior and enhance simulation accuracy across semiconductor and RF designs.

Learn practical PSpice circuit design using behavioral modeling and E value components to build integrators, differentiators, and filters, then perform rectification and transient and AC analyses.

Design rlc circuit with 5% resistor and 10% capacitor/inductor tolerances, perform sensitivity analysis in pspice, and optimize a transistor amplifier (no op amp) for gain and bandwidth via piecewise optimization.

Explore real-world case studies of power supplies, amplifiers, and filters, detailing design, analysis, and simulation workflows. Learn troubleshooting strategies and Spice tools for reliable, efficient circuits.

design and simulate op-amp circuits, including non-inverting, inverting, adder, and subtractor configurations, using pspice to place components, set sources, and perform transient and ac analyses.

Learn troubleshooting and debugging techniques for PSpice circuit simulations, diagnosing convergence and stability issues, using measurement tools and datasheets, and applying step-by-step verification with ideal then real models.

Learn to design power supplies, amplifiers, and filters in PSpice, meeting 12 v input, 5 v output at 1 a, a 1 khz sinusoidal amplifier with gain 10, and simulate.

Integrate PSpice with KiCad to design and simulate pcb layouts, routing, and footprints, using open-source cad tools to generate gerber files for manufacturing.

Design and simulate a full wave rectifier by building its schematic and PCB in KiCad, adjust components, run transient analysis, and generate Gerber and BOM files for manufacturing.

Master the Peace Prize from basics to advanced features, and apply simulations in real world scenarios with a final project.