Majoring in both Physics and Biochemistry at Rice, Aadith tackles the subject from two directions — the pure mechanics and electromagnetism side alongside the biophysical applications where those principles govern everything from membrane potentials to protein folding dynamics. That dual lens is especially useful for students who need more than abstract derivations to make Newton's laws or conservation of energy feel real. His 1590 SAT underscores the quantitative precision he brings to problem setup and calculation.

Studying computer science and mathematics at Rice, William tackles the same calculus and linear algebra that underpin every physics problem — from resolving force vectors to setting up integrals for work and energy. He teaches high school physics alongside AP Calculus AB and BC, so when a kinematics or momentum problem demands clean mathematical reasoning, he can address both the physics logic and the math execution without skipping a beat.

Studying both economics and biochemistry at Rice means Jennifer regularly crosses between quantitative modeling and lab science — the exact combination that makes physics problems tractable, since she's comfortable with both the math and the physical reasoning. Her 1570 SAT score speaks to that quantitative fluency, and she applies it to everything from free-body diagrams in mechanics to pressure and energy concepts that bridge her two majors. Rated 4.9 by students.

Kinematics equations and free-body diagrams are straightforward once a student learns to translate a word problem into a physical picture before reaching for a formula. Raj approaches physics that way — sketching the scenario first, identifying forces or energy transfers, then selecting the right tool — which mirrors how his Rice science coursework trained him to think. He's rated 5.0 by students.

Free-body diagrams, conservation laws, kinematics equations — physics demands that students translate word problems into mathematical models, which is a skill most textbooks barely teach explicitly. Mingee earned her degree in biological and physical sciences, so she tackles physics problems the way a scientist would: identify the system, choose the right principle, then let the math follow. That structured approach keeps students from freezing when problems look unfamiliar.

Kinematics and Newton's laws demand both math fluency and physical intuition, which is a combination that doesn't come naturally to most students. Malcolm's coursework at Rice spans physics and biochemistry, so he's practiced at unpacking force diagrams, energy conservation problems, and wave behavior in ways that connect the equations to what's actually happening.

A chemical engineering degree means Jonathan didn't just study physics — he applied it daily across fluid mechanics, heat transfer, and materials science. He digs into the conceptual reasoning behind force diagrams, energy conservation, and kinematics so that setting up the problem becomes second nature. Once the physics makes sense, the math follows.

Engineering students see physics differently — every free-body diagram and energy conservation problem is a tool they'll use again in design courses. Casey brings that applied perspective to topics like kinematics, Newton's laws, and circuit analysis, showing students how to translate word problems into equations systematically. She also creates supplemental problems that push beyond standard homework difficulty, which is particularly useful for students aiming to master the material rather than just survive the exam.

A physics background changes how someone teaches the subject — instead of presenting formulas to memorize, Logan starts with the physical situation and builds the math around it. His bachelor's in physics means he can move fluidly from Newtonian mechanics through electromagnetism and thermodynamics, explaining not just how to solve a free-body diagram but why the forces balance the way they do. He also covers AP Physics 1 and 2, college physics, and astrophysics, so he's comfortable at nearly every level of the discipline.

Kinematics, Newton's laws, energy conservation, electromagnetism — Roni doesn't just teach these topics, he applies them every day in his mechanical engineering studies at Brown. He digs into the physical intuition behind each equation, so students learn to sketch the scenario, identify the forces, and reason through a problem rather than hunting for a formula to plug numbers into.

Lila teaches both AP Physics C courses — Mechanics and E&M — alongside calculus and pre-calculus, which means she can seamlessly bridge the gap when a physics problem turns into an integration or vector decomposition challenge. Her approach to force and circuit problems emphasizes building the physical picture first, then letting the math follow from clear reasoning rather than formula hunting. Rated 4.9 by students.

Kinematics, Newton's laws, energy conservation, electromagnetism — physics covers enormous ground, and each topic demands its own blend of conceptual reasoning and mathematical setup. Aurnab tackles problems by first identifying which physical principles apply and then translating them into equations, an approach sharpened by his engineering coursework at Rice and reflected in his 4.9 client rating.

I am a bit of a Swiss army knife. I can help you with math, programming, physics and a bunch of other courses. Other than homework and exams, you can ask me for help with projects or papers as well.

Engineering school doesn't let you hand-wave through physics — every force diagram, energy balance, and momentum calculation has to hold up under scrutiny. David carried that rigor through four years at Rice and now unpacks mechanics, electromagnetism, and wave behavior in ways that make the underlying logic visible rather than hidden behind formulas.

Every semester of Anne's architectural engineering program at Texas A&M layers on more physics — from Newtonian mechanics to thermodynamics to wave behavior. She tackles force diagrams, energy conservation, and kinematics problems by teaching students to identify what's actually happening physically before reaching for an equation.

Engineering students don't just use physics — they live in it. Omar applies Newtonian mechanics, circuit analysis, and wave behavior daily in his electrical and computer engineering program at Rice, so he teaches physics concepts through concrete examples that show why the math works the way it does.

Environmental science sits at the intersection of physics, chemistry, and biology — and Alex's master's work at Rice required applying Newtonian mechanics, thermodynamics, and wave behavior to real-world systems like atmospheric modeling and fluid dynamics. That cross-disciplinary perspective makes abstract physics concepts feel grounded and purposeful.

Kinematics, forces, energy conservation, waves — physics demands both conceptual thinking and comfort with math, and students often struggle because they're shaky on one side or the other. Derrick bridges that gap by connecting each equation back to the physical scenario it describes, drawing on the applied physics he uses constantly in geophysics coursework.

Holding a bachelor's degree in physics, Daniel digs into the subject from both the conceptual and mathematical sides — free-body diagrams and Newton's laws, but also the vector algebra and calculus that make those diagrams quantitative. He's equally comfortable unpacking kinematics for a first-year student and tackling electromagnetic wave equations for someone further along.

Engineering at Rice means Isaac doesn't just know physics equations — he builds things with them. He breaks down topics like electromagnetism, thermodynamics, and Newtonian mechanics by tying each formula back to the physical situation it describes, so students stop memorizing and start reasoning through problems. That approach is especially useful when a course jumps from kinematics to rotational dynamics and the notation suddenly looks unfamiliar.

Aleksey's graduate work in mechanical engineering at Rice means he doesn't just teach physics formulas — he uses them daily in research involving fluid dynamics, thermodynamics, and structural analysis. That real-world fluency lets him unpack concepts like conservation of energy or rotational motion in ways that make the math feel purposeful rather than arbitrary.

Christi's dual background in mechanical engineering and chemical engineering graduate work means she's solved real physics problems — fluid dynamics, thermodynamics, stress analysis — not just textbook exercises. She breaks down force diagrams and energy conservation problems by connecting them to the engineering applications where they actually matter.

Kinematics and force diagrams require a specific kind of problem-solving discipline — translating a physical scenario into math, then interpreting the math back into reality. Effie developed that discipline through her biochemistry coursework and medical training, where physics concepts like fluid dynamics, pressure, and wave behavior come up in clinical contexts. She teaches students to diagram each problem systematically before touching an equation.

An Applied Mathematics degree is essentially a physics toolkit — Ali spent his undergraduate years translating physical systems into differential equations and vector calculations. He teaches kinematics, energy conservation, and electromagnetism by emphasizing the math-to-concept bridge that trips up so many students. His additional background in chemistry and biology means he can pull examples from multiple sciences when a concept needs context.

A computer science major at Columbia, Jeremy approaches physics the way a programmer approaches debugging — isolating variables, testing assumptions systematically, and building from simple cases to complex ones. His comfort with calculus through Calc I and a perfect 1600 SAT score mean the math backbone of kinematics, forces, and energy problems is never the stumbling block, freeing him to zero in on the physical reasoning itself.

A strong pre-med track at Rice University meant Daniel didn't just take physics — he used it, applying kinematics, thermodynamics, and wave mechanics across his science courses. He approaches physics problems by teaching students to sketch the situation, identify forces, and set up equations before ever reaching for a calculator. That structured problem-solving habit is what turns a confusing word problem into a solvable one.

Christopher's neuroscience degree required serious physics coursework — action potentials are electrical circuits, biomechanics is Newtonian mechanics, and imaging techniques like MRI depend on electromagnetism and wave physics. That cross-disciplinary grounding means he can anchor abstract force or energy problems to concrete, real-world systems students actually find interesting, making the reasoning stick long after the problem set is done.

Engineering coursework doesn't just teach physics — it pressure-tests it across mechanics, circuits, thermodynamics, and wave behavior in ways a standard physics class never does. Steven earned his biomedical engineering degree applying Newton's laws and energy conservation to real system designs, and he unpacks those same principles for students tackling kinematics, forces, or electromagnetism for the first time.

An engineering science degree means Stan spent semesters grinding through mechanics, thermodynamics, and electromagnetism — not as standalone topics but as tools for solving real design problems, which gives him a practical grip on how physics concepts connect to each other. He's especially sharp at breaking down free-body diagrams and energy conservation setups where students tend to lose track of which forces or transfers actually matter. Rated 4.9 by students.

Studying molecular and environmental biology at UC Berkeley means Christopher regularly applies the same mechanics, thermodynamics, and wave principles that show up in physics courses — from modeling diffusion processes to understanding pressure systems in environmental science. He's especially good at walking students through the leap from a written problem to a free-body diagram or energy bar chart, making the translation between words and equations feel methodical rather than mysterious.

An electrical engineering degree is essentially a physics degree with a soldering iron — Naji spent years applying Maxwell's equations, Kirchhoff's laws, and Newtonian mechanics to real systems. He teaches physics by connecting free-body diagrams, energy conservation, and wave behavior to problems students can visualize, making the math feel like a natural extension of the concept rather than a separate hurdle.

An applied math and biology double major, Megan brings the quantitative backbone that makes Newton's laws and conservation principles actually work on paper — she's comfortable with the calculus underneath the physics, not just the conceptual layer. She also teaches AP Physics 1 through AP Physics C: E&M, so she can scale explanations from algebra-based force problems to full vector calculus treatments of electric fields depending on what a student needs. Rated 4.9 by students.

Carolyn tackles physics by anchoring abstract ideas — like conservation of momentum or electromagnetic induction — in concrete, step-by-step problem-solving rather than formula memorization. Her science-heavy premed track at Rice means she regularly works through the same quantitative reasoning her students encounter. She's especially effective at teaching students how to diagram a problem before touching an equation.

A chemistry degree might seem like an unusual path to physics tutoring, but Joshua's coursework in physical chemistry demanded fluency in thermodynamics, wave mechanics, and electromagnetism. He was hired by the University of Texas to tutor undergraduates in physics for two years, tackling everything from free-body diagrams to energy conservation problems.

An electrical power engineering degree is essentially a physics degree with a job title — Julian spent years working through electromagnetism, circuit theory, and mechanics at a level most physics tutors haven't touched. He's especially sharp on problems involving forces, energy, and electric fields, breaking multi-step problems into clear free-body diagrams and energy bar charts that make the logic visible.

I'm currently a freshman at Rice University studying applied math. I've always had a love for sharing knowledge with others, and I started tutoring when I was a junior in high school. As a former AP student and a National AP Scholar, I have the experience necessary to guide my students through challenging curriculum. Though I specialize in tutoring mathematics and physics, I am experienced with and am happy to tutor a broad range of subjects.

I am best at STEM subjects and standardized test prep. However, Spanish is also a strong subject for me since I grew up speaking it. I don't only speak it, but also have a solid background in writing and reading since I was schooled in Mexico for many years.

Hello! My name is Connor, and I am a Bioengineering student at Rice University with a strong background in physics, mathematics, chemistry, and standardized test preparation. I scored a 1550 on the SAT and earned a 7 in IB Higher Level Physics. I enjoy helping students build a deep understanding of concepts rather than simply memorizing formulas. My goal is to make challenging topics approachable, improve problem-solving skills, and help students gain confidence in their academic abilities. Whether you're preparing for an exam, improving class performance, or tackling difficult homework assignments, I will tailor lessons to your specific goals and learning style.

I am a great tutor, because I am able to craft and implement lesson plans designed for individual students, as well as facilitate group sessions. I have experience teaching Supplemental Instruction at Auburn University, where in addition to lecture materials, I provided study skills and academic success strategies to my students. I am a National Merit and National Hispanic Scholar, and I received a full Academic Presidential Scholarship plus stipends at Auburn. I consistently score well on standardized tests, and I am able to use and share my test-taking skills and strategies.

I'm Deepika, a physics and chemistry teacher at a college-level preparatory school, a computer science engineer, and a Master's in Science Education from Johns Hopkins University. I teach both advanced and regular courses, including ESL/ELL students, using project-based and inquiry-led approaches. I make science clear, hands-on, and fun, helping students understand the why behind the concepts. Every session is tailored to your pace and goals, so you can build confidence, problem-solving skills, and a love for learning.