Award-Winning College Physics Tutors
serving Minneapolis, MN

Cancer research lab work at the University of Minnesota gave Brian a hands-on feel for the physical principles that show up in college physics — optics in microscopy, fluid dynamics in cell culture, energy transfer in spectroscopy — so he can ground abstract problem sets in tangible phenomena. His genetics and cell biology coursework required calculus-based physics, and his 34 ACT reflects the quantitative reasoning he brings to breaking down multi-step mechanics and thermodynamics problems. Rated 4.9 by students.

Finishing a physics degree while eyeing graduate work in biomedical engineering, Jane sits right at the crosspoint where classical mechanics, wave behavior, and electromagnetism feed into real applications — pressure in fluid systems, signal propagation in biological sensors, stress analysis in implant design. That application-minded perspective shapes how she breaks down college physics problems, connecting the abstract math to the physical scenario it actually describes. Rated 4.9 by students.

Most college physics struggles come down to not knowing which tool to grab — is this a conservation of energy problem or a Newton's second law problem? Broden's computer science training wired him to think in logical frameworks, and he applies that same structured reasoning to mechanics and electromagnetism, breaking each scenario into a decision tree before any equations appear. Rated 5.0 by students.

Building things that actually work — which is what mechanical engineering is — means Vania spent her degree applying Newton's laws to real structures, calculating heat transfer through materials, and analyzing fluid flow, not as textbook exercises but as design requirements. That hands-on engineering intuition shows up when she breaks down free-body diagrams or walks through energy conservation problems, because she's solved versions of them that had to hold up in the physical world. Her 1590 SAT underscores the quantitative precision she brings to calculus-based problem solving.

Aerospace engineering coursework at the University of Minnesota means Ethan solves college physics problems for a living — orbital mechanics is applied Newtonian gravity, flight dynamics is rotational kinematics, and propulsion is thermodynamics with real stakes. He brings that applied perspective to tutoring, walking students through how to set up free-body diagrams and energy conservation problems the way engineers actually think about them. Holds a 5.0 rating.

Introductory college physics moves fast, and the gap between understanding a lecture and solving the problem set can feel enormous. Moosa completed two years of university coursework through PSEO while still in high school, including physics at the college level, so he knows exactly where that gap shows up — especially in topics like rotational dynamics, circuits, and wave mechanics. He walks through problems step by step, emphasizing how to set up the physics before diving into the math.

I am a huge supporter of the notion that doing helps you learn. Being a distance runner and expanding into the triathlon world, I know the power of practice and putting in the time to make sure that you put effort into practice. I live by the phrase "You play how you practice.... So practice hard."

College-level physics ramps up fast once vectors, torque, and electromagnetic fields enter the picture. Julia's experience with university-level science coursework means she can unpack those tougher problem sets and show how to set up equations from first principles instead of hunting for the right formula to plug into.

Ella earned her physics degree doing exactly what college physics courses ask of students — grinding through mechanics, E&M, waves, and thermodynamics with the calculus to back it up. She's particularly sharp at teaching students to dissect multi-concept problems, like combining rotational kinematics with energy methods, because she approaches each one as a chain of smaller physical arguments rather than a formula hunt. Holds a 5.0 rating.

Joe's mechanical engineering degree means he didn't just study college physics — he applied it, running stress analyses, modeling thermal systems, and solving dynamics problems where getting the physics wrong meant a design that wouldn't work. That hands-on engineering context makes him particularly effective at teaching free-body diagrams, energy methods, and the kinematics-to-kinetics pipeline that forms the backbone of most introductory sequences. He breaks problems into physical setup first, math second, so students stop guessing at formulas and start reasoning through scenarios.

A PhD in biomedical engineering means Andrew has spent years applying physics to biological systems — modeling forces on joints, analyzing fluid flow through tissues, understanding how electromagnetic fields interact with the body. That depth in mechanics, thermodynamics, and E&M carries directly into the calculus-based problem solving college physics courses demand. Rated 4.9 by students.

Engineering coursework at Cornell means Abby is actively grinding through the same calculus-based physics — mechanics, wave motion, electromagnetism — that her students are tackling, which keeps her explanations grounded in the specific problem styles and pitfalls that show up on current exams. She breaks down multi-step problems by isolating the physical principle first, then translating it into the math, so students stop guessing which equation to use. Holds a 5.0 rating.

Studying computer science at MIT means Brice lives inside the math and physics that most students only encounter on problem sets — his coursework regularly demands fluency in mechanics, wave behavior, and electromagnetism as foundations for everything from signal processing to computational modeling. He breaks physics problems into the same kind of step-by-step logical structure he'd use to debug code, which makes tangled multi-concept questions feel systematic rather than overwhelming. Rated 4.9 by students.

Bidyut's biomedical engineering coursework at Johns Hopkins means he tackles college physics problems — from rotational dynamics to electromagnetic induction — with the applied perspective of someone who uses these principles in lab and design work daily. He connects abstract force diagrams and circuit analyses to real engineering scenarios so the physics actually clicks. Rated 5.0 by students.

Biomedical engineering at Brown means Phillip solves physics problems with real biological stakes — modeling fluid flow through vessels, analyzing stress on implant materials, calculating electrical signals in tissue. That daily overlap with mechanics, thermodynamics, and electromagnetism gives him a practical fluency that makes college physics problem sets feel less abstract and more like puzzles with actual answers. Rated 5.0 by students.

College-level physics ramps up fast, especially when courses introduce calculus-based mechanics or electromagnetism for the first time. Charles works through these topics as part of his mechanical engineering curriculum at Yale, so he can walk through derivations of torque, moment of inertia, or Gauss's law with the fluency of someone who applies them in lab and design projects regularly.

Biomedical engineering at Yale means Ellie applies physics daily — from fluid dynamics in circulatory models to electromagnetic principles in medical imaging. She breaks down topics like torque, wave optics, and circuit analysis by connecting them to real systems she encounters in her coursework and research. Rated 5.0 by students.

Engineering physics at Cornell means Daniel is taking the most mathematically demanding version of every physics course — mechanics, E&M, waves, thermo — and building the intuition to move fluidly between physical reasoning and formal derivation. He's particularly strong at teaching students how to set up problems from scratch, translating a word problem into a free-body diagram or energy equation before any numbers appear. Rated 5.0 by students.

Statics, dynamics, circuits, electromagnetics — Steve didn't just take these courses, he took them twice over, earning degrees in both mechanical and electrical engineering before working as a practicing engineer. That dual perspective is especially useful in college physics, where a problem about induced EMF or stress in a beam benefits from someone who's designed real systems around those principles. Rated 4.9 by students.

When a college physics problem looks like pure abstraction — a block on a frictionless ramp, a charge in a uniform field — Dylan's instinct is to sketch it out, graph it, and show what's physically happening before touching an equation. That visual, graphical approach comes from his physics major at Vanderbilt, where he's simultaneously studying classics and computer science, giving him an unusual ability to translate dense quantitative reasoning into clear, intuitive language. He holds a 4.5 rating and a 36 ACT composite.

A physics PhD means Jonathan didn't just take college physics — he spent years teaching it, earning a teaching fellowship that kept him in front of students even while running his own research. That depth shows when he tackles the conceptual leaps that derail most introductory students, like connecting free-body diagrams to real force interactions or translating a word problem into the right conservation law. Rated 5.0 by students.

Thermodynamics is where Rahul lights up — it was his favorite corner of Cornell's chemical engineering program, and that enthusiasm shows when he's walking someone through heat engines, entropy, or the first and second laws in a college physics context. His engineering training means he treats every problem as a physical system first and an equation second, pushing for the conceptual reasoning behind each step rather than formula-matching. Rated 4.9 by students.