Award-Winning Physics Tutors
serving Scottsdale, AZ

I am Arizona born and raised, my education includes an NYC law school degree with an undergraduate BS degree from University of Miami. In college I majored in Health Sciences with minors in Psychology and Public Health while in law school I leaned into corporate law and finance. Between law school and college I've pretty much covered every topic under the sun! In my spare time, I enjoy reading (especially mystery novels), pretending I'm a chef, and meditating.

Studying physics as a chemical engineering grad student means Alex doesn't just know the equations — he's applied Newton's laws, energy conservation, and wave mechanics to real systems in the lab. He teaches physics by starting with the physical situation, sketching free-body diagrams or energy bar charts, and only then reaching for the math. His 5.0 rating speaks to how well that approach lands.

A physics degree doesn't just teach someone to solve problems — it rewires how they think about forces, energy, and motion at a fundamental level. Sam brings that depth to topics from Newtonian mechanics through electromagnetism, walking students through free-body diagrams, conservation laws, and circuit analysis with the precision of someone who's done it professionally. He also builds laser systems as a hobby, so applied physics is genuinely part of his daily life.

I am currently in the process of obtaining a Bachelor of Science degree in pure mathematics at Rice University in Houston, Texas. I tutor a wide range of subjects including U.S. History, algebra, calculus, chemistry, comparative politics, economics, and test preparation. Although I enjoy tutoring in all of these subjects, I especially like tutoring math-related subjects such as high school algebra, calculus, and linear algebra. Outside of class and tutoring, I enjoy golfing, stargazing, collecting foreign coins, and playing the violin.

A physics degree and 25-plus years of engineering work mean Tim doesn't just remember kinematics, electromagnetism, and thermodynamics — he's applied them professionally across multiple industries. He digs into free-body diagrams, energy conservation problems, and circuit analysis by showing students the reasoning process an engineer actually uses. That approach turns problem-solving from guesswork into a repeatable method.

After earning three bachelor's degrees and a law PhD, John pivoted to co-founding a tech startup — a path that demanded teaching himself the quantitative and systems-level thinking that physics problems run on. He approaches mechanics and energy concepts the way an engineer-turned-entrepreneur would: break the system into components, figure out what governs each piece, then build the solution step by step. Rated 5.0 by students.

Kinematics, force diagrams, and energy conservation problems all follow a similar pattern: translate the physical situation into math, solve, then interpret. Elise approaches physics by drilling that translation step, since most errors happen before students even pick up a calculator. Her quantitative training through biomedical sciences and medical school keeps her sharp across mechanics, electricity, and waves.

Kinematics equations and free-body diagrams become far less intimidating once a student sees them as descriptions of real motion rather than symbol-shuffling exercises. River teaches physics by tying each problem back to a concrete scenario — a ball in flight, a block on a ramp — and then showing how the math follows naturally from the physical setup. His science training at ASU kept physics tightly integrated with biology and chemistry, so he's comfortable across the discipline.

Few physics tutors can say they've applied Newton's laws and electromagnetic theory to actual spacecraft. Chris worked at NASA on missions including Galileo, Cassini, and the Hubble Space Telescope's NICMOS instrument, turning textbook physics into functioning science. Whether the topic is kinematics, wave optics, or thermodynamics, he unpacks the underlying principles using examples drawn from real engineering and research problems.

I am a graduate student currently working on my Master's Degree in Big Data Systems.

Having concentrated on physics within her applied mathematics degree, Madeleine spent time in a university research lab where she collaborated on real experimental problems — not just textbook scenarios. That experience means she can explain Newtonian mechanics, energy conservation, or wave behavior with both mathematical precision and physical intuition. She's rated 5.0 by students and excels at showing how equations map onto what's actually happening.

Coding simulations in Python and Java actually builds serious physics intuition — Mehek has modeled everything from projectile trajectories to wave interference computationally, which means she can explain why the equations work, not just how to use them. Her 35 ACT confirms the quantitative chops to tackle force diagrams, energy conservation, and kinematics problems with precision.

Yurok's dual degree in physics and mathematics at Emory means the calculus behind every physics concept — from deriving kinematic equations to integrating electric fields — is second nature, not an extra hurdle. He teaches across every level from introductory mechanics through AP Physics C and quantum mechanics, so he can pinpoint whether a student's stuck on the physical reasoning or the math underneath it. Rated 4.9 by students.

Designing houses for a living means Aaron solves real physics problems constantly — calculating load paths through structures, resolving force vectors at joints, and applying statics principles that most students only see as textbook exercises. That architectural engineering background gives him a concrete vocabulary for teaching mechanics, forces, and energy concepts, because he can point to an actual beam or truss and explain why the math matters. Rated 5.0 by students.

An electrical engineering degree is essentially a physics degree with a soldering iron — Ajay spent years applying Newton's laws, electromagnetic theory, and energy conservation principles to real circuit and system design problems. He teaches physics by connecting each concept to something tangible, whether that's explaining torque through a wrench or wave behavior through a guitar string. His 34 ACT reflects the kind of analytical precision he brings to problem-solving.

Studying mechanical engineering means Nitesh doesn't just remember physics formulas — he understands the force diagrams, energy conservation principles, and rotational dynamics behind them. He unpacks each problem by identifying which physical law applies and why, so students build the kind of reasoning that transfers across topics from mechanics to waves.

Medical school trains you to think in systems — and that's exactly how Hanna approaches physics problems, whether it's tracing how forces propagate through a pulley setup or tracking energy through a collision. Her premed coursework and experience tutoring math through differential equations mean the calculus backbone of physics never becomes a stumbling block, and she can connect concepts like torque or fluid pressure to the biomedical contexts that make them stick. Rated 5.0 by students.

Studying geology at Ohio University meant Paul lived in the overlap between physics and the natural world — calculating forces on rock formations, modeling wave propagation, applying thermodynamic principles to mineral systems. He unpacks topics like Newton's laws, energy conservation, and kinematics by tying them to tangible scenarios that make the equations feel grounded.

Charles earned his biochemistry degree at Arizona State, where physics courses in mechanics, thermodynamics, and wave behavior were central to his training. He breaks down force diagrams and energy conservation problems by connecting them to everyday scenarios — a ball rolling downhill, a car braking — so the math feels grounded in something real.

Arpita approaches physics the way she approaches her pre-med science courses at Emory: diagram first, equation second. Whether it's free-body diagrams for Newton's laws or energy bar charts for conservation problems, she teaches students to translate word problems into visual models before reaching for a formula. That habit builds the kind of problem-solving instinct that carries across mechanics, electricity, and waves.

Aerospace engineering at Georgia Tech means Naveen solves mechanics, fluid dynamics, and thermodynamics problems daily — the same core physics that introductory students encounter for the first time. He breaks down force and motion scenarios by connecting them to the engineering applications where those principles actually matter, giving students a concrete reason to care about free-body diagrams and conservation laws. His 35 ACT reflects the quantitative instincts he brings to every problem.

Maurice's Special Education training gives him a sharp eye for where a student's understanding actually breaks down — whether it's confusing velocity with acceleration or misapplying Newton's third law in force diagrams. He rebuilds each concept step by step, adjusting the explanation until the physics clicks rather than just repeating the same approach louder. He teaches across math and science from elementary through college level, so bridging the algebra gaps that often stall physics progress comes naturally.

A self-described physics dork with a BS in mechanical engineering, Daniel lives and breathes the subject — from Newtonian mechanics to thermodynamics to electromagnetism. He connects equations to real physical scenarios so that free-body diagrams and conservation laws feel intuitive rather than formulaic.

Pursuing a biology degree at the University of Houston means Pooja regularly works through the mechanics, thermodynamics, and wave concepts that overlap heavily with introductory physics — and her comfort tutoring calculus and algebra keeps the mathematical side from becoming a separate obstacle. She's especially effective at translating word-heavy problems into clear diagrams and identifying which conservation law or force relationship actually governs the scenario. Rated 5.0 by students.

Samuel teaches across the full math sequence — pre-algebra through calculus — which means he can pinpoint whether a physics struggle is actually a trig identity gap, a vector decomposition issue, or a genuine conceptual misunderstanding about forces or energy. That math fluency lets him spend less time re-teaching algebra mid-problem and more time on the physical reasoning: setting up free-body diagrams, choosing reference frames, and connecting Newton's laws to the actual motion.

During high school Yuxuan tutored peers in physics after school, and his engineering-adjacent coursework at UC Berkeley kept him deep in mechanics, electromagnetism, and thermodynamics throughout college. He approaches problem-solving by teaching students to draw clean free-body diagrams and energy diagrams first, so the math follows logically instead of feeling like guesswork.

Civil engineers live in Newtonian mechanics — forces, moments, equilibrium, and motion are the bread and butter of the discipline. Jenna applies that professional-level fluency to physics tutoring, unpacking free-body diagrams and kinematics equations in ways that make the problem-solving process feel systematic rather than overwhelming.

Understanding physics means being comfortable switching between diagrams, equations, and physical intuition, often in the same problem. As a working engineer, Emeka applies Newtonian mechanics, energy conservation, and wave behavior to real structures — so he teaches these concepts with the kind of specificity that textbooks often skip.

Coming from a biological sciences background, Musa approaches physics problems by grounding abstract formulas in tangible scenarios — force diagrams for real objects, energy conservation in systems students can visualize. He spent a year at ASU's tutoring center identifying the exact spots where students lose the thread, whether that's vector decomposition or connecting Newton's laws to free-body diagrams.

Jack passed AP Physics 1 in high school and now applies Newtonian mechanics, energy methods, and wave behavior routinely in his civil engineering program at Arizona State. That combination of exam experience and ongoing practice means he can unpack free-body diagrams, conservation laws, and kinematics problems at whatever level a student needs — conceptual or calculation-heavy.

Kinematics problems look deceptively simple until a student has to decompose vectors, choose a reference frame, and keep signs consistent across two dimensions. Gordon tutors algebra-based physics by emphasizing free-body diagrams and systematic problem setup before anyone touches an equation — an approach he developed while mentoring engineering undergraduates at ASU. Once students trust the diagram, the math follows naturally.

Hi! I'm a STEM, SAT/ACT, and language tutor with over a decade of teaching and tutoring experience. I have tutored students in every grade level in K-12 and first and second year college students. I mainly teach Math, Science, Physics, Hindi, English, French, ACT (35 score), and SAT (1560 score), and other subjects upon request.

I'm a 24-year old teacher/tutor. I am a very personable, outgoing person and I enjoy making connections with others- especially when I can make people feel comfortable no matter what the setting- and I find that those who have less to say usually have the most important things to say! Tutoring provides me with a platform in which I am able to help others gain confidence in their work and watch them discover abilities they may not have known that they have. Above all, this is what I most love about tutoring and teaching.

As a passionate tutor with experience in subjects ranging from AP Calculus BC to AP Chemistry, I am dedicated to fostering a supportive learning environment where students can thrive. Currently pursuing a Bachelor's degree in Biomedical Engineering at Tufts University, I bring a unique perspective to my tutoring approach, emphasizing real-world applications of complex concepts. My teaching philosophy centers on building strong connections with students, encouraging them to ask questions and explore their interests. I find immense joy in helping students achieve their academic goals and develop a love for learning, whether they are preparing for the ACT or mastering piano. Let's work together to unlock your potential!

Hi, I recently earned my Ph.D. in Organic Chemistry from Purdue University and have entered the private sector. In my program, I found that teaching and instructing students was very enjoyable and I wish to continue that by being a tutor. I have been a successful tutor for over a decade and know how to instruct to a variety of different skill sets and learning abilities.

A PhD in biomedical engineering built on a bachelor's in physics means Andrew has spent years solving problems across mechanics, electromagnetism, and thermodynamics. He teaches physics by emphasizing free-body diagrams, unit analysis, and the habit of translating word problems into mathematical models before reaching for formulas. That systematic approach turns intimidating multi-step problems into manageable sequences.

Engineering students see physics differently than most tutors do — every force diagram, energy conservation problem, and wave equation is a tool they actually use. Ellie's biomedical engineering program at Yale means she tackles mechanics, electricity, and thermodynamics regularly in applied contexts. She unpacks the math behind each physics concept so students understand the equations instead of just memorizing them.

Siva's engineering training means he's spent years translating physical situations — projectile motion, circuit analysis, wave behavior — into mathematical models and back again. That translation skill is exactly what physics students need when a free-body diagram or energy conservation problem refuses to click. He earned a 1560 SAT and 35 ACT, so standardized problem formats are second nature too.

Cornell's engineering curriculum throws Abby into physics-heavy coursework every semester — statics, dynamics, circuits, and the calculus that ties them together — so the mechanics and energy concepts in introductory physics are tools she uses constantly, not distant memories. She breaks down multi-step problems by identifying the core physical principle first, then building the math around it piece by piece. Rated 5.0 by students.