Electrify Your EE Interview: A Silicon Valley Experience

Polish your resume and optimize LinkedIn to attract recruiters, then learn the electrical engineering interview process—from cold outreach to phone screens, take-home exams, and offer negotiation.

Polish your resume into a bulletproof, one-page, keyword-rich interview magnet by following a structured template, highlighting impact over responsibilities, and tailoring with job descriptions using Job Scan.

Update your LinkedIn profile with engaging photos and a complete record of experience, education, licenses, certifications, publications, projects, and skills to attract recruiters and interviews.

Learn five proven ways to land interviews: online applications, direct recruiter outreach, LinkedIn networking, friend referrals, and recruiter-initiated contacts, plus tracking your progress with a job-hunt template.

Discover what companies truly seek in electrical engineers, from a standout, concise one-page resume and a strong LinkedIn profile to solid fundamentals, clear communication, and teamwork.

Navigate the typical electrical engineering interview process from initial application to final offer, including phone screens, take-home assessments, panel interviews, and negotiations.

Refresh your understanding of charge, voltage, current, and resistance. Study energy, power, capacitance, inductance, and impedance in alternating circuits, and use a cheat sheet of equations to prepare for interviews.

Explore the fundamentals of charge, current, resistance, and voltage in circuits, including coulombs, amps, ohms, volts, Ohm's law, and Kirchhoff's current and voltage laws.

Clarify the difference between energy and power, define energy as joules and power as the rate of energy transfer (P = IV), with related formulas and units.

Contrast alternating current and direct current, explaining sine waves and rms voltage. Explain why high-voltage ac enables efficient transmission by transformers and reduces conduction losses; introduce capacitance, inductance, and impedance.

Learn how impedance blends resistance and reactance to oppose alternating current, and examine capacitance and inductance as frequency-dependent contributors to a circuit's response.

Explore passive components through real interview questions on ideal and non-ideal resistors, capacitors, and inductors, learning by answering and reviewing a written q&a list to gain confidence.

Explore ideal resistors, calculate average and peak power in a 110 V rms ac circuit, and deduce R3 from AB, CD, AC, and BD measurements in a star-connected black-box.

Analyze ideal capacitors in series and parallel, show two identical caps yield C/2, and a 1 F with 0.5 F finalizes at 2/3 V, via charge conservation and plate-distance effects.

Compute the total inductance for n ideal inductors in parallel using 1/L_total = sum 1/Li. Show how v = L di/dt implies current changes with the voltage sign.

Explore real world resistors and their non-idealities, including tolerance, power rating, maximum voltage, temperature coefficient, and parasitic inductances and capacitances. See how these factors appear in a Vishay datasheet.

This lecture models a real world capacitor with ESR, leakage resistance, and ESL. It analyzes impedance vs frequency and explains the resonant minimum used for decoupling and noise filtering.

Explore how real world inductors differ from ideal models, showing dc resistance, series resistance, parasitic parallel paths, and frequency dependent impedance for filter and RF applications.

Explore standard, Schottky, Zener, and LEDs, their functions and circuit applications, through five interview-focused lessons on diode circuits and problem solving.

Learn about the standard diode, a two-port rectifier that conducts only when forward biased, with a 0.5–0.7 V drop. Note reverse leakage, breakdown voltage, and parasitic capacitance.

Explore Schottky diodes, with a lower forward voltage drop and reduced power dissipation. Their fast switching and lower capacitance suit switching apps, but they have limited reverse voltage and leakage.

Learn how Zener diodes operate in reverse bias at their breakdown voltage to regulate voltages, protect circuits from spikes, and clip or clamp input signals.

Learn how LEDs operate as forward-biased diodes emitting light, with forward voltage and temperature-dependent brightness. Understand resistor-based design using Ohm's law and the pros of parallel versus series LED arrangements.

Explore how diodes interact with resistors, capacitors, and inductors in complex circuits, including RC step response and a take-home exam problem with an ideal diode and LED.

Explore MOSFET basics and an interview-ready method to select a low-side 12 V, 10 A MOSFET with 5 V logic, considering Vds max, Vgs max, threshold, current, and thermal margins.

Learn to drive a P-type MOSFET as a high-side switch from a 0–5 V Arduino signal, using an N-type driver and a voltage divider to limit Vgs.

Explore the essentials of ideal op amps in this refresher, including infinite gain, infinite input impedance, zero output impedance, and negative feedback, via interview-style questions.

Explore ideal op amp circuits, including voltage followers and inverting amplifiers, and learn how negative feedback sets voltages, transfer functions, and rail-limited outputs.

Examine ideal op-amp circuits, including a non-inverting setup with VA and VB and a capacitor-based inverting configuration, deriving transfer behavior and noting high-frequency gain.

Explore ideal op-amps, from input impedance and negative impedance converters to Schmitt triggers with hysteresis, and preview real-world non-idealities in op-amp circuits.

Explore real world op amps and their non-idealities, including finite open-loop gain, input bias currents, offset voltage, finite bandwidth, and noise, and apply these concepts to interview-style problems.

Analyze the LM741 op amp datasheet to understand real-world non-idealities such as input offset voltage, input bias current, and common mode rejection ratio.

Explore how filters selectively remove or pass frequencies, learn low pass, high pass, band pass, and notch filters, and introduce Bode plots for analysis in analog and digital domains.

Explore passive and active analog filters, including RC low-pass and high-pass networks, op-amp followers, transfer functions with poles and zeros, and practical multi-stage designs like Sallen‑Key topologies.

Explore digital filters as the digital counterpart to analog filters, sampling with an adc, processing on a microprocessor, and implementing iir and fir designs with coefficients.

Explore digital communication protocols such as ITC, SPI, UART, CAN, and PWM, and learn how to compare, contrast, and assess their core operation for interview scenarios.

Learn the I2C protocol: a master controller drives the SCL clock while devices share the SDA line in half-duplex, using open-drain MOSFETs, pull-up resistors, and seven-bit addressing.

Learn how the spi protocol enables full-duplex master-slave communication over four wires, with a dedicated chip select, mosi/miso lines, voltage level considerations, and push-pull drivers for high speeds.

Explore how universal asynchronous receiver transmitter enables two-device, full-duplex, asynchronous communication using r and t lines, shared ground, baud rate synchronization, and voltage level considerations.

Can connects multiple devices on a single pair of differential lines with priority-based access. It is half duplex and bidirectional, with 120 ohm termination on a twisted pair.

Master pulse width modulation to convert a digital signal into an analog-like output by adjusting duty cycle at a frequency, including calculating 36% for nine watts on a one-ohm load.