Award-Winning Electrical Engineering
Tutors
Award-Winning
Electrical Engineering
Tutors
Private 1-on-1 tutoring, weekly live classes for academic support, test prep & enrichment, practice tests and diagnostics, and more to elevate grades and test scores.
Based on 3.4M Learner Ratings
UniversitiesSchools & Universities
DeliveredHours Delivered
ProficiencyGrowth in Proficiency
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Jai earned his Bachelor's in Electrical Engineering and Computer Science from Stanford, where he dug into circuit analysis, signal processing, and semiconductor physics firsthand. He connects theoretical concepts like Kirchhoff's laws and Fourier transforms to practical applications, making dense material easier to internalize.
Steve earned his M.S. in Electrical Engineering and now works as a practicing engineer, so he teaches circuit analysis, signal processing, and electromagnetics with the fluency of someone applying these concepts professionally. Whether it's Kirchhoff's laws in a sophomore circuits course or Laplace transforms in a signals class, he connects theory to the practical reasoning that makes it stick.
Prakash earned his MS in Electrical Engineering with a power and energy systems concentration, then moved into industry where he mentored junior engineers through their PE exams. He teaches circuit theory, power systems, and electronics with the kind of practical context that textbooks skip — explaining not just how to solve a Thevenin equivalent, but when and why you'd use one in a real design. His coursework and hands-on industry experience cover everything from signal processing to three-phase power analysis.
Circuit analysis, signal processing, and electromagnetic theory sit at the intersection of physics and engineering — territory Beepul navigates daily as a biomedical engineering student at Duke. He unpacks concepts like Kirchhoff's laws and RC circuit behavior by tying the math to what's physically happening in the circuit, which makes complex problems more approachable.
I am a full time college professor teaching Mathematics and engineering courses.
I am a recent graduate with a master's in electrical engineering from Case Western Reserve University. I won the Bill and Melinda Gates Millennium Scholarship which covers full tuition up to Ph.D. I was on the Dean's List for three consecutive years. Additionally, I won the OZY Media Genius Award in 2015 to work on high-temperature superconductors. I currently work as a Technology Analyst at Accenture. I am also seriously considering whether I should go for a Ph.D. or not.
Currently finishing her Master's in Electrical Engineering at UT Dallas, Alisa is deep in the material that undergraduate EE students are working to understand — circuit analysis, signal processing, and electromagnetics. She explains dense topics like Laplace transforms and transfer functions by tying the math back to physical behavior in the circuit, which makes the theory stick. Her honors-level undergraduate work in the same program means she's navigated every stage of the EE curriculum firsthand.
Circuit analysis, signal processing, electromagnetic theory — Min holds both a BS and MS in Electrical Engineering, so he teaches these topics from direct academic depth rather than secondhand familiarity. He's particularly effective at walking through Kirchhoff's laws, Thevenin equivalents, and AC steady-state analysis in ways that connect textbook formulas to physical intuition about what's happening in a circuit.
Jake earned his B.S. in Electrical Engineering and brings hands-on knowledge of circuit analysis, signal processing, and digital logic design to every session. Whether it's Kirchhoff's laws, op-amp configurations, or AC/DC power systems, he breaks down complex EE concepts into clear, buildable steps. Rated 5.0 by students.
Circuit analysis, Kirchhoff's laws, and signal basics are part of Matthew's daily engineering toolkit — his dual focus in mechanical and robotics engineering at WPI requires constant work with electrical systems, from motor controllers to sensor circuits. He explains concepts like Thevenin equivalents and AC phasor analysis by tying them to physical systems students can visualize. Rated 5.0 by his students.
Intensely curious, I am interested in STEM subjects and the liberal arts. I tutor to help you reach your educational goals and because it's immensely gratifying to see my students succeed.
Akio studied computer engineering at Purdue, where Digital Systems Design was one of the courses he taught as a TA — meaning he's walked dozens of students through circuit analysis, logic gates, and signal processing firsthand. He unpacks concepts like Kirchhoff's laws and AC/DC circuit behavior by tying them to the digital systems where they actually matter.
Testimonials
Because the right Electrical Engineering tutor makes all the difference.
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Frequently Asked Questions
Students often find circuit analysis particularly difficult—especially applying Kirchhoff's voltage and current laws, understanding mesh and nodal analysis, and working with AC circuits and phasors. Electromagnetics concepts like Gauss's law, magnetic fields, and Maxwell's equations are also abstract and hard to visualize without proper guidance. Additionally, many students struggle with the transition from basic DC circuits to more complex topics like transformers, three-phase systems, and signal processing, where small conceptual gaps compound quickly.
Strong math skills—particularly in differential equations, complex numbers, Fourier analysis, and linear algebra—are essential for upper-level EE courses. Many students have gaps in these foundational areas, which makes circuit analysis and electromagnetics feel impossible. A tutor can identify where your math foundation is weak and fill those gaps in context, showing you exactly how calculus or complex numbers apply to real circuits and systems rather than teaching math in isolation.
These concepts are inherently invisible, which is why many students memorize formulas without truly understanding what's happening. Effective tutoring uses multiple approaches: drawing detailed circuit diagrams with current paths clearly marked, using analogies (like water flowing through pipes for current), simulating circuits with tools like SPICE or multisim, and working through real-world examples where you can see how theory applies to actual devices. Building this intuition early prevents confusion later when dealing with complex systems.
Lab work often reveals gaps in theoretical understanding—you might calculate a circuit should work, but measurements don't match. A tutor helps you understand why by walking through the theory behind each experiment, explaining sources of error, and teaching you to troubleshoot systematically using both calculations and measurements. This connection is critical because EE is ultimately about building and testing real systems, not just solving equations on paper.
Effective EE tutors teach systematic approaches: starting by identifying what you know and what you need to find, choosing the right analysis method (nodal vs. mesh, Thevenin equivalent, superposition), checking your answer's reasonableness, and verifying units throughout. They also emphasize breaking complex multi-stage circuits into simpler sections, recognizing circuit patterns (voltage dividers, current dividers, filters), and knowing when to use approximations versus exact solutions. These strategies turn overwhelming problems into manageable steps.
Look for tutors with hands-on experience—ideally someone who has designed, built, or debugged real circuits, not just someone who passed exams. They should be able to explain concepts multiple ways, use simulation software and lab equipment comfortably, and understand common student misconceptions (like thinking current "gets used up" in a circuit). The best tutors can connect abstract theory to practical applications and adjust their explanations based on whether you're a visual, mathematical, or hands-on learner.
At introductory levels, tutors focus on building solid intuition about voltage, current, and basic circuit laws—getting the fundamentals right prevents major struggles later. At intermediate levels, they help you master analysis techniques and transition to AC circuits, which require thinking in complex numbers. At advanced levels, tutors work on specialized topics like control systems, power electronics, or electromagnetics, where the math is more sophisticated and real-world design constraints matter. Each level requires different emphasis.
Yes—tutors can guide you through the design process by helping you understand specifications, choose appropriate components and topologies, work through calculations, and troubleshoot when prototypes don't work as expected. They won't do the design for you, but they can teach you how to approach problems systematically, validate your choices against theory, and learn from failures. This is especially valuable for capstone projects where you need to integrate multiple concepts and make real engineering trade-offs.
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