Award-Winning Physics Tutors
serving Gulfport, MS

Understanding physics means translating word problems into free-body diagrams, equations, and units that actually make sense together. Yeseul approaches each topic — whether it's kinematics, energy conservation, or electromagnetism — by first building the physical intuition behind the math, so formulas stop feeling arbitrary.

A year as a course assistant in Harvard's math department means Richard can handle the calculus that often becomes the real obstacle in physics — setting up integrals for work-energy problems or differentiating position functions in kinematics. He teaches across physics, calculus, and AP-level math, so when a mechanics problem demands clean vector decomposition or a tricky trig substitution, the math doesn't slow the physics down.

Derek earned a 790 on the SAT Physics Subject Test and scored 5s on both AP Physics 1 and AP Physics C: Mechanics, covering everything from kinematics and energy conservation to rotational dynamics. He teaches physics by anchoring each problem in a free-body diagram or energy diagram first, so students learn to set up solutions systematically before touching equations.

Holding degrees in both mechanical and electrical engineering, Steve has solved the full spectrum of physics problems professionally — from statics and dynamics in mechanical systems to electromagnetism in circuit design. That dual perspective is especially useful when students hit the transition from mechanics to E&M, since he can show how the same problem-solving structure carries across both halves of a physics course. 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.

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.

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.

Dylan's physics major at Vanderbilt means he's not recalling intro-level material from years ago — he's actively working through classical mechanics, electromagnetism, and modern physics right now, which keeps his explanations current and sharp. His instinct is to ground every abstract concept in a physical, graphical picture: showing what a free-body diagram actually represents, or why a velocity-time graph reveals more about acceleration than a formula ever could. That visual-first approach, backed by a 36 ACT and a math minor, makes the subject click for students who've been drowning in equations without understanding what they mean.

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.

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.

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.

A mechanical engineering degree from WashU means Caroline didn't just study physics — she applied it daily, from fluid dynamics to stress analysis. She teaches students to set up free-body diagrams and energy conservation problems by connecting the math to physical intuition, making kinematics and Newton's laws click rather than feel like formula hunts.