Award-Winning Physics Tutors
serving Colorado Springs, CO

Studying mechanical engineering means Christian solves physics problems daily — force diagrams, energy conservation, rotational dynamics, thermodynamics — at a level well beyond introductory courses. He teaches students to start every problem by identifying what physical principle applies before touching a single equation, which eliminates the guesswork that trips most people up. That structured approach transfers across mechanics, electricity, and waves.

Studying engineering physics at Colorado School of Mines, Jude lives in the world of force diagrams, energy conservation, and wave mechanics every day. He approaches physics tutoring like a lab partner — asking questions, sketching diagrams together, and walking through the reasoning behind each equation rather than just handing students a formula sheet. That interactive method turns intimidating multi-step problems into manageable chains of logic.

Free-body diagrams and energy bar charts are where Lena starts every mechanics problem — getting the physical picture right before any equation shows up on the page. Her sociology degree trained her to break complex systems into interacting parts, a habit that transfers surprisingly well to analyzing forces, momentum, and multi-object scenarios. Rated 5.0 by students.

Engineering students live in physics — Colton spent four years at UVA applying Newton's laws, conservation of energy, and circuit analysis to real biomedical problems. He explains kinematics and free-body diagrams by building each solution from a clear diagram forward, so students learn to set up problems correctly instead of hunting for the right equation to plug numbers into.

Kinematics, Newton's laws, energy conservation, wave behavior — Graham doesn't just teach these topics, he uses them every day in his astrophysics program at CU Boulder. That daily fluency means he can explain a concept multiple ways until one clicks, whether a student needs a mathematical derivation or a real-world analogy involving orbits and collisions. His 5.0 rating speaks to how well that flexibility works.

Understanding physics means learning to translate a word problem into a diagram, then into an equation — and that translation step is exactly where most students get stuck. Michelle breaks down that process explicitly, teaching students to identify forces, draw free-body diagrams, and choose the right kinematic or energy equation before touching a calculator. Her current graduate studies in physical therapy keep her fluent in biomechanics and applied physics concepts.

An engineering physics degree from the Colorado School of Mines means Cody didn't just study physics — he solved real engineering problems using Newtonian mechanics, electromagnetism, thermodynamics, and quantum theory across four years of intensive coursework. He teaches the subject by connecting equations to physical intuition, so students understand why F=ma produces a specific trajectory rather than just plugging numbers into formulas. His SAT score of 1440 hints at the broad analytical skills he brings, but it's the depth of his physics training that sets his tutoring apart.

An astronomy major lives inside physics — from Newtonian mechanics governing planetary orbits to electromagnetism explaining how stars radiate energy. Rohith uses that deep, applied understanding to unpack force diagrams, conservation laws, and wave behavior in ways that go well beyond formula sheets.

A physics degree doesn't just mean Evan studied the subject — it means he spent years wrestling with free-body diagrams, conservation laws, circuit analysis, and wave mechanics at a level well beyond the introductory course. He unpacks each problem by identifying which principles apply and why, so students learn to think like physicists rather than hunt for the right equation. Rated 5.0 by his students.

Kathleen's math background at Washington University gives her a natural advantage when teaching physics — she treats kinematics equations, force diagrams, and energy conservation as applied math problems rather than disconnected formulas. She digs into the specific step where a student gets stuck, whether that's setting up a free-body diagram or knowing when to apply Newton's second law versus conservation of momentum.

Studying mechanical engineering at Harvard means Christopher doesn't just remember physics — he's actively building on it every semester, from Newtonian mechanics and thermodynamics to electromagnetism and wave behavior. He breaks down complex problems by teaching students to draw clean free-body diagrams, identify which conservation law applies, and translate word problems into solvable equations. That systematic approach turns intimidating multi-step problems into manageable sequences.

Engineering students solve physics problems differently than most — they diagram forces, track units obsessively, and translate word problems into equations almost automatically. Annie brings that engineering instinct from her Cornell coursework to topics like kinematics, Newton's laws, energy conservation, and circuits, showing students a systematic approach that works across problem types.

Bryan holds a B.S. in Physics and teaches the subject the way it's actually practiced — starting from a real situation, identifying the relevant principles, and building a solution step by step. Whether the problem involves conservation of momentum or circuit analysis, he emphasizes drawing clear free-body diagrams and checking units before touching a calculator.

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.

Engineering is applied physics, which means Charles doesn't just remember the formulas for kinematics, energy conservation, or rotational dynamics — he uses them to solve design problems at Yale every week. That practical fluency lets him explain not just how to set up a free-body diagram but why each force matters and what happens when you change a variable. Rated across math and science subjects, he's especially sharp on real-world application problems.

A Caltech economics and computer science graduate, Brian brings serious quantitative depth to physics — from Newtonian mechanics and energy conservation through electromagnetism and wave behavior. He teaches students to set up problems systematically, identifying which principles apply before touching a single equation, which is the skill that separates students who understand physics from those who just memorize formulas.

Eric approaches physics the way his Duke engineering program taught him: start with a free-body diagram, identify what's conserved, and let the math follow from the concept. Whether it's projectile motion, circuits, or rotational dynamics, he walks through each problem type until the setup becomes second nature.

Emily approaches physics problems the way her science training taught her: sketch the situation, identify the forces, then translate the diagram into math. That structured method is especially useful for kinematics and Newton's laws, where students often know the equations but struggle to set problems up correctly. Her background in neurobiology also means she's comfortable with the biophysics applications that make the subject feel more relevant.

Engineering is applied physics, so Kate spent years solving the exact kinds of problems — free-body diagrams, energy conservation, circuit analysis — that show up in introductory physics courses. She walks through each problem by identifying what physical principle applies and why, which builds the kind of intuition that makes new problems feel approachable instead of intimidating.

Akarsh's cellular and molecular biology training — both bachelor's and master's — required grinding through the same mechanics, thermodynamics, and electromagnetism that physics students face, particularly in biophysics coursework where forces, pressure gradients, and energy transfer aren't optional. He tackles problem sets by first isolating which physical law is actually at work, then mapping the math onto it step by step, so students stop guessing at formulas and start reasoning through solutions.

Studying applied math at Stanford gave Alex a deep comfort with the mathematical backbone of physics — setting up differential equations for oscillating systems, working through vector fields, or translating a word problem into a free-body diagram. He teaches the problem-solving process itself, showing students how to identify which principles apply before touching a single equation.