Award-Winning Physics Tutors
serving Columbus, GA

Neuroscience coursework at Rhodes College put Saniya through the same mechanics, electricity, and wave physics that introductory students face — action potentials are membrane capacitance problems, nerve signal propagation is wave behavior, and biomechanics is straight Newtonian analysis. She leans on those biological connections to make force diagrams and energy calculations feel grounded in something real rather than purely abstract. Rated 5.0 by students.

Cornell's engineering curriculum throws Chris into the deep end of Newtonian mechanics, electromagnetism, and wave theory — the same material that makes up a standard physics course — so the content stays fresh and applied rather than theoretical. He pairs that with a knack for teaching across age groups, breaking force diagrams and energy conservation problems into steps that match how each student actually thinks. Rated 5.0 by students.

Having earned both a BS and PhD in mechanical engineering, Bettina has solved thousands of problems in statics, dynamics, thermodynamics, and fluid mechanics — the very topics that form the backbone of any physics course. She digs into the underlying reasoning behind Newton's laws and conservation principles so that students build real intuition, not just equation-matching reflexes.

Addison completed both AP Physics C courses — Mechanics and Electricity & Magnetism — at Gwinnett School of Mathematics, Science, and Technology before continuing with calculus-based science at Rice. She unpacks force diagrams, energy conservation, and circuit analysis by connecting the math to physical intuition so that equations stop feeling arbitrary.

Alexandra doesn't teach physics from a textbook alone — she publishes astrophysics research, runs university telescopes, and codes simulations in Python to model real physical systems. That means when she walks through kinematics, electromagnetism, or wave optics, she can show exactly where each concept appears in the wild. She covers everything from AP Physics 1 mechanics through college-level E&M.

A physics and astronomy degree means Jonathan didn't just study physics — he built his entire education around it, from classical mechanics and electromagnetism to thermodynamics and wave optics. He teaches each topic by starting with the physical scenario, sketching what's happening, and only then reaching for equations. That sequence — picture first, math second — consistently turns confusing force diagrams and energy problems into something students can reason through on their own.

Studying prosthetics and orthotics at Georgia Tech means Michael applies Newtonian mechanics, torque, and material stress analysis to the human body on a daily basis. He brings that same applied lens to physics tutoring, breaking down free-body diagrams, kinematics, and energy conservation by anchoring each problem in a physical situation students can actually picture.

Chemical engineering at Georgia Tech is essentially applied physics — thermodynamics, fluid mechanics, and energy balances every semester — so Matthew brings a problem-solver's instinct to topics like kinematics, electrostatics, and wave behavior. He teaches students to sketch the scenario, identify known quantities, and choose the right equation before plugging in a single number, which turns intimidating multi-step problems into manageable sequences. His 34 ACT composite reflects that same systematic precision.

Adam's strength in physics comes from teaching it alongside math and standardized test prep — he knows exactly which algebra and trig gaps cause students to stall out mid-problem, and he addresses both the physics reasoning and the underlying math simultaneously. His approach to mechanics and kinematics leans heavily on breaking word problems into small, numbered steps, a habit built from years of tutoring students across multiple math levels.

Most physics struggles come down to translating a word problem into a free-body diagram or energy equation — the math itself is usually algebra or basic calculus students already know. Manideep zeroes in on that translation step, teaching students to identify forces, choose coordinate systems, and set up equations before touching a calculator. His science-heavy coursework at Northwestern keeps Newtonian mechanics and wave concepts sharp.

Two mechanical engineering degrees mean Ziad has solved thousands of problems rooted in Newtonian mechanics, energy conservation, and wave behavior — not as textbook exercises, but as the foundation for designing real systems involving fluid flow and heat transfer. He teaches students to isolate the physical principle governing a scenario first, then build the math around it, which is especially effective for multi-concept problems in dynamics and thermodynamics. Rated 4.8 by students.

Working in a stem cell research lab means Brittany regularly deals with the physical forces and thermodynamic principles that govern cell behavior — from pressure gradients across membranes to the mechanics of centrifugation. That hands-on lab fluency translates directly when she breaks down introductory physics problems, especially in mechanics and energy conservation, because she can ground abstract equations in tangible processes students can picture. Rated 4.9 by students.

A neuroscience degree is quietly one of the most physics-heavy life science programs out there — membrane potentials, signal propagation, and imaging techniques all rely on electromagnetism and wave mechanics. Varshini applies that cross-disciplinary fluency to topics like kinematics, forces, and energy conservation, connecting equations to real physical scenarios instead of leaving them as symbols on a page.

A biochemistry degree from Georgia Tech comes with serious physics coursework — mechanics, thermodynamics, electromagnetism — taken alongside engineering students. Adel uses that training to dig into free-body diagrams, energy conservation, and circuit analysis with the kind of specificity that turns confusing textbook chapters into solvable problems. He holds a 5.0 client rating.

Theoretical particle physics research gives Jesse a perspective on introductory physics that few tutors can offer — he sees Newtonian mechanics, electromagnetism, and thermodynamics as chapters of one continuous story. He teaches problem-solving by training students to sketch the situation, identify the relevant principle, and only then reach for an equation.

Self-studying to a 1600 SAT and a 35 ACT required Dhruv to teach himself AP-level physics from scratch — building up from free-body diagrams and Newton's laws to rotational dynamics and electrostatics without a classroom to lean on. That process gave him a sharp sense for where self-taught and under-supported students get stuck, especially when a problem demands translating a physical scenario into the right mathematical framework. Rated 4.9 by students.

Philosophy and physics share a surprising amount of DNA: both demand careful reasoning from first principles. Sophie applies that analytical rigor to kinematics, force diagrams, and energy conservation, walking through each problem's logic before touching a single equation. Her neuroscience studies at Emory also keep her fluent in the math that underpins physics at every level.

An engineering student headed to Georgia Tech for Biomedical Engineering, Travis has taken physics coursework alongside electrical circuit analysis, giving him a practical grasp of mechanics, energy, and electromagnetism that goes beyond textbook definitions. He unpacks force diagrams, kinematics equations, and wave behavior by connecting them to real systems. His 1480 SAT score also speaks to the quantitative reasoning skills that physics demands.

Studying neurobiology at the undergraduate level required Leah to internalize physics concepts — wave mechanics, electrical circuits, and force dynamics — as tools for understanding how biological systems actually work. She brings that applied perspective to physics tutoring, teaching students to translate word problems into free-body diagrams and equations that map onto real phenomena.

Because physics lives at the intersection of math and real-world observation, Yuheon's Applied Mathematics training at Notre Dame gives him a natural advantage in unpacking force diagrams, kinematics equations, and energy conservation problems. He emphasizes translating word problems into mathematical setups — the step where most students get stuck — before ever touching a formula.

Every physics problem is really a story about forces, energy, or motion — the math just describes what's happening. Taylor teaches students to sketch the scenario, identify the relevant principle, and only then reach for an equation, which prevents the common mistake of plugging numbers into the wrong formula. A B.S. in Chemistry and ongoing graduate work at the University of Tennessee keep Taylor fluent in the math and scientific reasoning physics demands.

Mechanical engineering at UGA means Kayla solves physics problems daily — statics, dynamics, thermodynamics, fluid mechanics — so the concepts she teaches are ones she's actively using in her own coursework, not material she's recalling from years ago. She's especially sharp at breaking down free-body diagrams and walking through Newton's laws problems step by step, connecting the physical setup to the math so each equation choice feels deliberate. Rated 5.0 by students.

I am continuing to add to my range of subjects that I teach.

Computer science at Georgia Tech means Joshua is constantly translating real-world scenarios into mathematical models — the same skill that makes or breaks a physics problem when you need to go from a written description to the right force equation or energy relationship. His patient, methodical approach works especially well for students who freeze up during multi-step kinematics or Newton's law problems, since he builds each step deliberately rather than rushing toward an answer.

Studying physics at Georgia Tech while tutoring everything from introductory mechanics to quantum mechanics gives Burhanuddin an unusual range — he can trace a concept like conservation of energy from the block-on-a-ramp problems in a first course all the way to Hamiltonian formalism in upper-level coursework. That depth means he catches exactly where a student's understanding breaks down, whether it's setting up free-body diagrams or misreading what a potential energy graph is telling them. Rated 5.0 by students.

A nuclear and radiological engineering degree means Corey didn't just study physics — he built an entire career on it, from classical mechanics and electromagnetism through thermodynamics and modern quantum concepts. He's currently deepening that expertise in a Medical Physics master's program, which keeps him sharp on everything from kinematics problems to energy conservation and wave behavior. Students get someone who can walk through both the math and the physical intuition behind every equation.

After an 11-year hiatus, I am excited to return to one-on-one tutoring in high school and college-level precalculus, calculus, and physics. My goal is to build students' confidence in subjects that often feel overwhelming by identifying the root of their challenges - whether it's a forgotten foundational skill or a mismatch in teaching and learning styles - and helping them work through those roadblocks with clarity and patience. I discovered my passion for tutoring in high school through volunteer mentoring and later assisted classmates in physics at my teacher's request. Since then, I have supported students in courses ranging from geometry to upper-level calculus. I am currently tutoring while pursuing my next full-time opportunity, most recently having worked for a railroad construction products supplier.

Philosophy and physics share a core skill: taking a messy situation and stripping it down to the essential forces at work. Bruce applies that analytical discipline to mechanics, thermodynamics, and wave problems, walking students through free-body diagrams and energy conservation step by step. He's especially effective at translating word problems into the equations students need to solve them.

Industrial engineering at Georgia Tech means Robert doesn't just study physics — he applies Newtonian mechanics, energy conservation, and kinematics to real systems on a regular basis. He excels at translating a word problem into a free-body diagram and then into the right equations, which is exactly where most physics students get stuck. His approach emphasizes understanding the physical situation first so the math follows naturally.

Aerospace and mechanical engineering at Georgia Tech means Cole solves physics problems professionally — orbital mechanics, fluid dynamics, structural loads — so the introductory concepts in kinematics, forces, and energy conservation are deeply intuitive territory. He's especially sharp at showing students how to translate a messy word problem into a clean free-body diagram and then into the right equations, because that's exactly the workflow engineers use every day. Holds a 5.0 rating.

A mechanical systems engineering degree means Zachary learned physics by applying it — calculating torques in gear systems, modeling fluid dynamics, and analyzing thermodynamic cycles in real machines. He breaks down force diagrams, energy conservation, and kinematics by tying each concept to something physical and tangible, which tends to make the math click faster.

Kinematics equations and free-body diagrams are straightforward once a student learns to translate a word problem into a physical picture. Victor tackles physics by teaching that translation step explicitly — identifying forces, choosing coordinate systems, and mapping the math onto what's actually happening. His background in both computing and psychology means he's comfortable with the quantitative side and attuned to where conceptual misunderstandings hide.

Matthew started tutoring physics before anything else — it was his first subject, and years of biochemistry coursework only deepened his grip on mechanics, thermodynamics, and wave behavior by forcing him to apply those principles in chemical and biological contexts. He's especially sharp at untangling free-body diagrams and energy conservation problems where students know the concepts but freeze when multiple forces or transfers show up at once. Rated 5.0 by students.

Kinematics equations and free-body diagrams require both math fluency and physical intuition — two things that don't always develop at the same pace. Regina pairs her strong calculus background with a problem-solving style honed in Georgia Tech's engineering-heavy environment, walking through force problems and energy conservation step by step until the physics clicks.

After scoring a 35 on the ACT — including the science reasoning section — Jessica developed a knack for quickly parsing data-driven problems, which translates directly to how she tackles kinematics and force diagrams in physics. Her approach leans on building the conceptual picture first, sketching out what's happening physically before any equation shows up, so students stop guessing which formula to grab. Rated 5.0 by students.

Every engineering problem Noah solved professionally started with the same physics fundamentals students encounter in introductory courses — force diagrams, energy conservation, rotational dynamics. He unpacks these concepts by walking through the reasoning behind each equation rather than treating formulas as things to memorize and plug into. His 5.0 rating speaks to how well that approach lands.

Studying engineering physics at UNG and now mechanical engineering at Georgia Tech, Ikechukwu has spent years living inside the subject he teaches — from classical mechanics and thermodynamics to electromagnetism and wave behavior. He approaches physics problems by teaching students to sketch the scenario, identify the relevant principles, and set up equations before touching a calculator. That structured problem-solving method transfers across every topic in the course.

Understanding physics means learning to translate a real situation — a ball in the air, a circuit on a breadboard — into a mathematical model and then back again. Tahmeed's dual background in math and philosophy at Emory sharpens both sides of that skill: the quantitative rigor to set up equations of motion or energy conservation, and the logical precision to interpret what the answer actually means.

A mechanical engineering degree is essentially a physics degree with an application layer — Yaroslav spent four years immersed in Newtonian mechanics, thermodynamics, and electromagnetic theory. He tackles physics problems by teaching students to draw the free-body diagram or energy diagram first, then translate the picture into equations. That diagram-first method cuts through the confusion that hits when a problem has too many variables at once.

A physics teaching degree plus active graduate research in nuclear engineering gives Serdar an unusual combination: formal training in how to explain physics and deep daily practice applying it. Whether the topic is Newtonian mechanics, circuits, or thermodynamics, he connects equations to physical scenarios so students can predict what should happen before they start calculating. Rated 5.0.