Award-Winning College Physics Tutors
serving Atlanta, GA

Spectroscopic research on protoplanetary disks means Alexandra spends her days applying the same physics that fills college problem sets — electromagnetic radiation, wave behavior, thermal equilibrium, and gravitational dynamics — except aimed at baby stars forming planets. Her astronomy PhD gives her a rare ability to walk through optics, mechanics, and thermodynamics problems with the fluency of someone who uses those equations to publish real findings. Rated 4.9 by students.

Chemical and biomolecular engineering at Georgia Tech meant Matthew spent years applying thermodynamics, fluid mechanics, and transport phenomena to real systems — the same physics principles that make college courses demanding, except he had to use them to design processes that actually worked. That engineering intuition is especially useful when students hit energy balances, heat transfer, or pressure-driven flow problems and need someone who can connect the textbook derivation to what's physically happening. Holds a 5.0 rating.

Prosthetics design at Georgia Tech is essentially applied physics — Michael's graduate work involves analyzing forces on residual limbs, stress distributions in socket materials, and the biomechanics of gait, all of which map directly onto the mechanics and dynamics problems in a college physics course. His undergraduate biomedical engineering training layered in fluid dynamics, wave behavior, and thermodynamics, giving him a dual perspective that connects textbook derivations to tangible physical systems. A 34 ACT reflects the quantitative precision he brings to calculus-based problem solving.

Biochemistry at Georgia Tech meant Adel couldn't just skim the physics — courses in thermodynamics, fluid dynamics, and molecular kinetics required him to actually internalize the calculus-based reasoning behind each concept. He breaks down multi-step problems by isolating the physical principle first, then building the math around it, which keeps students from defaulting to equation-hunting. Holds a 5.0 rating.

Between his physics coursework, electrical circuit analysis, and engineering math through differential equations, Travis has the technical foundation that college physics demands. He's especially sharp at walking through the mathematical setup — partial derivatives in thermodynamics, vector components in electrostatics, integration in continuous charge distributions. Students preparing for calculus-based physics get a tutor who genuinely speaks both the math and the physics.

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.

Nuclear and radiological engineering is essentially applied physics taken to extremes — Corey's undergraduate coursework meant solving problems in radiation transport, reactor kinetics, and thermodynamic cycles that go well beyond what introductory college physics covers. Now pursuing a master's in Medical Physics, he's actively working with the electromagnetism and wave behavior behind imaging systems like CT and MRI, which keeps the foundational concepts sharp and grounded in real applications.

College-level physics demands more than formula memorization; it requires setting up problems from scratch using calculus-based reasoning and vector analysis. Bruce digs into the derivations behind concepts like electric flux, rotational inertia, and wave superposition so students understand what each equation actually describes. His philosophical training in rigorous argumentation translates surprisingly well to building physics proofs and justifications.

Between an aerospace engineering undergrad and a mechanical engineering master's at Georgia Tech, Cole has taken college physics from both sides — the theoretical foundations and the applied design courses where those foundations get tested under real constraints. He's particularly sharp on mechanics topics like projectile motion, rigid body dynamics, and fluid behavior, since those are the bread and butter of his engineering work. Rated 5.0 by students.

Fifteen years of teaching math and physics across every level from sixth grade through college means Taha has seen the exact moments where students lose the thread — the leap from one-dimensional kinematics to projectile motion, or the shift from DC circuits to time-varying fields. He holds two master's degrees and uses that depth to trace each new concept back to something a student already understands, building each problem-solving step from familiar ground rather than dropping formulas out of thin air.

A physics education degree paired with graduate-level nuclear engineering means Serdar has taught introductory concepts like projectile motion and energy conservation while simultaneously working through the advanced theory — reactor kinetics, radiation transport, neutron diffusion — that those foundations lead to. That dual perspective lets him explain college physics problems from both the student's entry point and the deeper physical picture most instructors skip over. Rated 5.0 by students.

Pre-med coursework at Williams College meant Matthew tackled the full sequence of calculus-based physics alongside organic chemistry and biology, so he understands how force, energy, and wave concepts show up not just on physics exams but across the sciences. His chemistry major gives him an unusual edge when problems involve thermodynamics or fluid behavior, where the physics and chemistry blur together. Rated 5.0 by students.

Neuroscience at Emory means Kaustubh regularly encounters physics in disguise — action potentials as RC circuits, diffusion as a thermodynamic process, MRI as an exercise in electromagnetism — so he brings a cross-disciplinary fluency that makes abstract college physics topics feel anchored to something real. He's especially sharp at teaching students to dissect a problem conceptually before touching any equations, a habit built through three-plus years of tutoring math and science from algebra through calculus. Rated 4.9 by students.

College-level physics ramps up fast once rotational dynamics, electric fields, and thermodynamic cycles enter the picture. Andrew approaches these topics by first making sure the vector math and calculus foundations are solid, then layering in the physics concepts — an order of operations that prevents the common problem of students drowning in equations they don't understand.

Chemical and biomolecular engineering at Georgia Tech means Brittany's coursework is essentially college physics applied — fluid mechanics, heat transfer, and thermodynamics show up in her problem sets weekly, so she knows which concepts students struggle to translate from lecture notes into actual solutions. She's particularly strong at walking through the unit analysis and equation setup that keeps multi-step problems from falling apart.

Aerospace engineering at Georgia Tech means Christopher solves physics problems for a living — orbital mechanics is Newton's laws scaled up, aerodynamics is fluid dynamics with real stakes, and structural analysis is statics and stress pushed to their limits. He brings that applied perspective to college physics topics like kinematics, forces, and energy methods, making the leap from textbook setups to actual engineering reasoning feel natural. Holds a 5.0 rating.

Studying physics and astronomy as a liberal arts major meant Jonathan couldn't just crunch equations — he had to write about them, argue about them, and explain the reasoning behind everything from Newtonian mechanics to electromagnetic wave behavior. That training in articulating *why* a physical principle works makes him especially useful when students can set up the math but can't interpret what their answer actually means. He treats every problem as a chance to build physical intuition, not just algebraic reflex.

Adam's strength in college physics comes from the same place as his standardized test performance (32 ACT) — a knack for breaking quantitative problems into logical steps and knowing which concept applies where. He treats kinematics and force problems like puzzles with a clear entry point, teaching students to sketch the situation and identify constraints before touching an equation. His broad math tutoring background, from algebra through calculus, means the mathematical machinery behind physics rarely becomes the bottleneck.

Fluid mechanics and heat transfer — the topics Ziad specialized in across two mechanical engineering degrees — sit right at the intersection where college physics gets genuinely difficult, demanding fluency in pressure gradients, energy conservation, and calculus-based problem solving all at once. He brings that same engineering rigor to the earlier units too, walking students through free-body diagrams, kinematics, and rotational motion with the precision of someone who's applied those concepts professionally in the biomedical industry. Rated 4.8 by students.

Working in a stem cell research lab means Brittany regularly encounters physics in practice — fluid dynamics in cell culture systems, optics in microscopy, and pressure gradients across membranes — which gives her a concrete frame for the concepts that often feel purely abstract in a college physics course. Her biology degree grounds her explanations in real phenomena, and she's particularly effective at walking through the problem-setup phase where students figure out which physical principle actually governs a scenario. Rated 4.9 by students.

As a graduate physics student pursuing theoretical particle physics research, Jesse teaches college physics with an emphasis on building intuition for mechanics, electromagnetism, and thermodynamics — not just equation-plugging. He unpacks problems by connecting the math to the physical picture, so concepts like conservation of energy or Gauss's law actually make sense rather than feeling like arbitrary formulas.

College-level physics ramps up fast once partial derivatives, vector calculus, and differential equations enter the picture. Yuheon's coursework in Applied Mathematics at Notre Dame runs parallel to these tools, so he can walk through topics like electromagnetic fields or Lagrangian mechanics with genuine mathematical fluency. He connects each derivation back to a physical scenario so the math serves the intuition rather than replacing it.

Mechanical engineering at UGA means Kayla's entire curriculum runs on college physics — free-body diagrams in statics, energy methods in dynamics, heat transfer in thermodynamics — so she's solving these problems daily, not recalling them from years ago. She's particularly sharp at teaching students to sketch the physical situation and identify constraints before writing equations, which is where most point-losing mistakes actually happen. Holds a 5.0 rating.

Studying physics at Georgia Tech means Burhanuddin tackles college-level mechanics, electromagnetism, and thermodynamics in his own coursework every week — so he knows exactly where the conceptual gaps form and which problem-solving shortcuts actually hold up under exam pressure. His previous work at Mathnasium built a habit of breaking down intimidating multi-step problems into pieces a student can reason through one at a time, a skill that transfers directly to setting up free-body diagrams or applying Gauss's law. Rated 5.0 by students.

Teaching general and organic chemistry as a TA at the University of Tennessee means Taylor constantly works at the boundary where chemistry meets physics — thermodynamics, kinetics, molecular forces, and energy transfers all require fluency in both disciplines. That crossover gives her a practical grip on mechanics and electromagnetism concepts that goes deeper than textbook coverage, especially when problems involve real chemical or material systems. Rated 5.0 by students.

Mechanical systems engineering means Zachary spent his undergraduate years neck-deep in the physics that drives real machines — force analysis, kinematics, energy methods, rotational dynamics — so he can walk through college physics problems with the intuition of someone who's applied those principles to actual design work. He's particularly effective at breaking down free-body diagrams and multi-step mechanics problems where students struggle to connect the physical setup to the math. His 32 ACT reflects the quantitative reasoning he brings to calculus-based problem solving.

Industrial engineering at Georgia Tech means Robert has applied Newtonian mechanics, thermodynamics, and electromagnetism in both coursework and real-world engineering contexts — not just on exams. He breaks down complex multi-step problems by identifying which physical principles actually govern the system, then walks through the math layer by layer.

Biochemistry forced Matthew to internalize the physics that most pre-med students dread — fluid dynamics in circulatory models, thermodynamics in metabolic pathways, electrostatics in molecular interactions — so he teaches college physics with an eye toward where these concepts actually show up outside a textbook. He's especially sharp at walking through free-body diagrams and energy conservation problems step by step, making sure the reasoning clicks before the math starts. Rated 5.0 by students.

Mechanical engineering is essentially physics with deadlines — Noah's degree means he spent years applying Newton's laws, energy methods, and thermodynamic principles to systems that had to actually work, not just produce a correct homework answer. That practical fluency shows up when he walks students through free-body diagrams, rotational kinematics, or heat transfer problems, connecting the math to the physical situation it describes. Holds a 5.0 rating.

Yaroslav's mechanical engineering degree means he didn't just study physics — he applied it daily to problems involving thermodynamics, fluid mechanics, and rigid body dynamics. He breaks down intimidating college-level concepts like rotational kinematics and electromagnetic induction by connecting them to real engineering scenarios that make the math feel purposeful.

A biochemistry degree means Stephen spent semesters grinding through the same calculus-based physics sequence that trips up so many pre-med and science majors — mechanics, electromagnetism, thermodynamics, optics. He unpacks problems by starting with the physical scenario and building toward the math, which is especially useful for students who freeze when they see a free-body diagram or a Gauss's law integral.

Graduate work in Chemical and Physical Biology at Vanderbilt meant Dennis spent years applying thermodynamics, fluid dynamics, and electromagnetism to biological systems — the same core physics concepts that fill college problem sets, just in a research context where getting the physics wrong meant failed experiments. He breaks down force, energy, and field problems by connecting them to the physical intuition behind the math, which is especially useful for pre-med and life science students navigating calculus-based physics for the first time. Holds a 5.0 rating.

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.

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.

Four years teaching undergraduate physics labs at the University of Michigan — especially courses designed for non-STEM majors — taught Michael how to strip intimidating topics like electromagnetism, circuits, and wave optics down to their physical intuition before layering the math back on. His PhD research deepened that fluency across the full spectrum of college physics, from introductory mechanics through advanced electrodynamics and special relativity. Rated 4.7 by students.

Studying applied mathematics at Caltech means Samuel encounters physics constantly — from classical mechanics and energy conservation to electromagnetism and wave behavior. He breaks down the math behind physical systems so that equations like Maxwell's or Newton's second law feel like tools rather than obstacles.

Princeton's mechanical and aerospace engineering program is essentially a four-year immersion in applied physics — Fred spent it solving problems in fluid dynamics, thermodynamics, structural mechanics, and orbital motion, which maps directly onto the topics that fill college physics syllabi. He breaks down force diagrams and energy methods by connecting them to the engineering contexts where those concepts actually get used, making abstract problem sets feel more concrete. His 1550 SAT reflects the quantitative precision he brings to calculus-heavy coursework.

Three physics-related bachelor's degrees give Avram an unusually deep undergraduate perspective on the subject — he's worked through mechanics, electromagnetism, and modern physics multiple times across different programs, which means he knows exactly where the conceptual gaps tend to hide. He breaks down wave phenomena and optics problems by connecting the math back to physical intuition, so equations feel like descriptions of real behavior rather than symbols to manipulate. His 1520 SAT reflects the quantitative precision he brings to problem solving.

Working at an ExxonMobil refinery before MIT Sloan meant Caroline spent years applying thermodynamics, fluid mechanics, and force analysis to real industrial systems — the same physics that fills college problem sets, except with actual consequences for getting the math wrong. Her mechanical engineering M.S. from WashU (magna cum laude) gave her deep fluency with calculus-based derivations, so she can walk through everything from torque problems to heat transfer without skipping the steps that textbooks gloss over. Rated 5.0 by students.

Environmental engineering is essentially physics with consequences — Kate's master's work required her to model fluid flow, heat transfer, and pressure systems in real infrastructure, which means she's solved the same types of problems that show up on college physics exams but with actual design constraints attached. That applied perspective makes her particularly effective at teaching students to set up force balances and energy equations from a physical scenario rather than reverse-engineering from a formula sheet. Rated 4.9 by students.