Award-Winning Physics Tutors
serving Omaha, NE

Neuroscience at Vanderbilt is surprisingly physics-heavy — Avi's coursework covers electrical signaling in neurons, fluid dynamics in biological systems, and the mechanics underlying sensory perception, all of which reinforce the same force, energy, and wave concepts that show up in introductory physics. That biological angle gives him a way to make abstract problems concrete, connecting a free-body diagram or circuit analysis to something a student can actually picture happening in the real world.

An electrical engineering degree is essentially a physics degree with soldering — Oluwatosin spent years applying Newtonian mechanics, electromagnetism, and thermodynamics to real systems. He unpacks problems by teaching students to draw free-body diagrams, identify conservation laws, and translate word problems into equations before touching a calculator. That systematic approach is what moves students from guessing at formulas to actually reasoning through solutions.

Computer science students solve more physics than most people realize — Matthew's coursework runs through vectors, kinematics, and force modeling every time a simulation or game engine needs to behave like the real world. That crossover, plus teaching both calculus and physics, means he can untangle the moments where a student's confusion is actually about the math rather than the physics itself. Rated 4.9 by students.

A computer science degree builds surprisingly strong physics instincts — Oen spent semesters working through the same calculus, linear algebra, and algorithmic problem-solving that underpin kinematics, forces, and energy conservation. He approaches physics problems the way a programmer debugs code: isolating variables, testing assumptions one at a time, and building toward a solution systematically rather than hunting for the right formula.

As a Yale physics major who also teaches thermodynamics, special relativity, and statics and dynamics, Ian has worked through the full arc from introductory mechanics to upper-division theory — so he knows exactly where each concept builds on the last and where students tend to lose the thread. He's particularly sharp at finding the analogy or reframing that makes a stubborn idea finally click, whether that's torque, wave superposition, or conservation laws in multi-body systems. His 1550 SAT speaks to the quantitative precision he brings to every problem.

Molecular biophysics at Brown means Srini is constantly translating between physics and biology — applying mechanics, thermodynamics, and electrostatics to understand how proteins fold, membranes flex, and molecules interact. That dual fluency makes him especially effective at unpacking force and energy problems, because he can ground abstract equations in physical scenarios that actually mean something. His 1600 SAT and 35 ACT speak to the quantitative precision he brings to every problem.

From Newton's laws to wave behavior to electric fields, physics is ultimately about translating real situations into mathematical models. Aimee's engineering training at Georgia Tech means she's spent years doing exactly that — and she teaches students to sketch free-body diagrams and set up equations with the same systematic approach she uses in her own work.

Engineering students use physics every day, and Ava's dual degree in mechanical and energy engineering means she didn't just learn kinematics, Newton's laws, and energy conservation — she applied them to real systems. She TAed physics-related engineering courses at WashU and tutored high school physics students for several years, so she's comfortable adjusting her explanations whether someone is solving their first free-body diagram or wrestling with rotational dynamics.

Benjamin's finance and economics training at Notre Dame runs on the same quantitative backbone that physics demands — modeling systems, isolating variables, and reasoning through multi-step problems where one misstep cascades. He brings a toolkit of computation shortcuts and pattern-recognition tricks to kinematics and energy problems that make the math faster and less error-prone. Holds a 5.0 rating from students.

Earning a BS in physics from Yale gave Anthony deep comfort with the subject's core challenge: translating a physical scenario into a mathematical model and then interpreting the result. He breaks down force diagrams, energy conservation, and wave behavior by tying each concept back to the underlying math rather than treating equations as formulas to memorize.

Mechanical engineering grad school is essentially applied physics on repeat — Aaron solves statics, dynamics, thermodynamics, and fluid mechanics problems daily, so the concepts in introductory and AP-level courses are second nature rather than something he has to dust off. He's especially sharp at breaking down free-body diagrams and energy conservation setups, connecting the physical picture to the math so students see why an equation applies instead of guessing which one to use. Rated 5.0 by students.

Three science degrees from Yale — including one in chemistry — mean Zosia has worked through mechanics, thermodynamics, and electromagnetism problems repeatedly across disciplines, building the kind of cross-subject fluency that makes her especially clear on where physics concepts connect to the math underneath. She digs into the specific step where a student's reasoning breaks down, whether that's setting up Newton's second law for a pulley system or tracking signs through a conservation-of-energy equation. Rated 4.9 by students.

Understanding physics means learning to translate a word problem into a free-body diagram or energy equation — and then trusting the math to get you to the answer. Dennis developed that skill set through years of quantitative research at Vanderbilt, where physical principles underpinned his graduate work in Chemical and Physical Biology. He's patient enough to let students wrestle with a concept before stepping in to clarify.

A PhD in biomedical engineering built on a bachelor's in physics means Andrew has spent years solving problems across mechanics, electromagnetism, and thermodynamics. He teaches physics by emphasizing free-body diagrams, unit analysis, and the habit of translating word problems into mathematical models before reaching for formulas. That systematic approach turns intimidating multi-step problems into manageable sequences.

Teaching middle school science in Philadelphia meant John had to make forces, motion, and energy intuitive for students encountering those ideas for the first time — a skill that translates directly to breaking down introductory physics at any level. His history background also sharpened a habit of asking "why" before "how," so he digs into the reasoning behind Newton's laws or conservation principles before rushing to plug numbers into equations. Rated 5.0 by students.

Between a mechanical engineering bachelor's and a PhD program at Rice, Jeffrey has spent years solving statics, dynamics, and thermodynamics problems that most students only encounter in their first physics course. He taught calculus-based physics at Notre Dame and assisted in Differential Equations and Mechanics, so he knows exactly where students lose the thread — especially when multi-step force and energy problems demand both physical reasoning and clean math. Rated 4.9 by students.