Award-Winning AP Physics C: Mechanics Tutors
serving Spokane, WA

Mechanics is where Cory is most at home. He treats AP Physics C: Mechanics as a student's first real encounter with calculus-based reasoning about the physical world — deriving kinematic equations from integrals, connecting Newton's laws to differential equations in rotational dynamics, and building intuition for conservation laws that goes beyond plugging into formulas. His physics degree means the vector calculus never gets hand-waved away.

I am a professional scientist with multiple years of experience in the biopharmaceutical field. I have spent time in the classroom with elementary aged students and am comfortable with this age group. I am also familiar with AP classes and ACT/SAT preparation. I look forward to sharing my love of learning with students and helping them achieve academic goals!

I am a Masters student in Physics at the University of Washington and have over 10 years of teaching and tutoring experience. Most recently, I worked as a teacher at the Yellow Wood Academy, a private high school that offers students a specialized one-on-one classroom environment. At YWA, I taught all high school science classes (including AP, Computer Programming, and Environmental Science) and all levels of high school math. In addition to my teaching and tutoring duties, I designed individualized lesson plans, curricula, homework assignments, and tests. Subjects I have successfully tutored Physics: all levels Chemistry: all levels high school, plus P-Chem, O-Chem Biology: all levels high school Math: all levels high school, plus Differential Equations, Statistics, some Group Theory. Standardized test preparation (incl. SAT, ACT, GRE, MCAT) Need help in another area? Just ask! While math and science are the subjects I am most passionate about, I am well-versed in many academic areas, and I may be able to help you.

Decades of chemical engineering work gave Steven a particular fluency with the calculus-based mechanics that AP Physics C demands — he's applied Newton's laws, energy methods, and differential equations to real industrial systems, not just textbook scenarios. He explains each concept multiple ways, layering physical intuition with worked examples until the connection between the physics and the integral clicks. Rated 4.9 by students.

Engineering coursework at Notre Dame means Alexandra is solving calculus-based mechanics problems every week — free-body diagrams with variable forces, work-energy integrals, the full Newton's second law treatment that AP Physics C demands. Her 1530 SAT and 32 ACT point to the quantitative comfort that lets her explain the reasoning behind each setup rather than just walking through formulas. Rated 5.0 by students.

Designing control systems for Northwestern's solar car means Michael applies Newtonian mechanics, rotational dynamics, and energy conservation principles daily — the exact topics AP Physics C: Mechanics tests. He teaches students to translate word problems into free-body diagrams and then into the calculus-based equations that earn full marks on free-response questions.

Having TA'd multiple engineering courses at WashU while earning dual degrees in mechanical and energy engineering, Ava spent semesters breaking down the same calculus-based force analysis, work-energy theorems, and rotational dynamics that define the AP Physics C: Mechanics curriculum. Her 35 ACT speaks to the quantitative precision she brings to exam prep, and her current graduate work in environmental engineering keeps her fluent in the applied physics and differential equations students encounter on test day.

Biomedical engineering at Rice means Aurnab regularly applies calculus-based mechanics to biological systems — modeling forces on skeletal structures, analyzing motion in prosthetic designs — so the kinematics and Newton's laws on the AP Physics C exam map directly onto problems he's already solving in his coursework. His 36 ACT and 1590 SAT point to the mathematical precision that matters most when students need to cleanly set up a work-energy integral or differentiate a position function under exam time pressure. Rated 4.9 by students.

Studying Mechanical & Aerospace Engineering at Princeton, Nicolas solves calculus-based mechanics problems daily that go well beyond what the AP exam asks — rigid body dynamics, energy methods for complex systems, and the vector calculus behind rotational motion. That depth lets him quickly pinpoint whether a student's mistake lives in the physics reasoning or the integral setup, and fix the actual gap. Rated 5.0 by students.

Biophysics at Rice means Aadith solves mechanics problems where the calculus isn't optional — modeling forces on protein structures, analyzing torque in molecular motors, applying Newton's laws to systems most students never picture in a physics classroom. That cross-disciplinary lens gives him a knack for teaching students how to read a physical scenario and decide whether to reach for an energy integral or a force-based differential equation. His 1590 SAT underscores the mathematical precision he brings to every free-response setup.

Bettina didn't just study mechanics in a textbook — she earned a PhD in mechanical engineering, meaning she's derived equations of motion for real systems where assumptions about friction, constraints, and rigid-body approximations actually matter. That depth shows up when she teaches AP Physics C: Mechanics topics like rotational dynamics and gravitational potential energy, because she can explain not just how to set up the integral but why that particular model fits the physical situation.

Chemical engineering grad work at ASU Barrett means Alex solves calculus-based mechanics problems daily — from force balances on fluid systems to energy integrals across reactors — and that fluency translates directly to the kinematics, work-energy, and rotational dynamics on the AP Physics C: Mechanics exam. He also tutors AP Calculus BC and SAT Math (1560 SAT), so when a student's free-response answer falls apart, he can quickly isolate whether it's the physics reasoning or the integration technique that needs fixing. Rated 5.0 by students.

Double-majoring in physics and computer science at Stony Brook, Kiran lives in the calculus-based mechanics world daily — setting up work-energy integrals, deriving equations of motion, solving the same kinds of problems AP Physics C puts on the free-response section. His 34 ACT and physics coursework give him both the mathematical fluency and the physical intuition to explain why a particular integral applies to a given force scenario, not just how to evaluate it.

Darren is midway through his physics degree at Northwestern, which means he's actively taking the upper-division mechanics courses that build directly on everything AP Physics C tests — and he still remembers exactly where the conceptual jumps from kinematics to rotational dynamics tripped him up the first time. He zeroes in on free-body diagrams and getting the calculus setup right before students ever touch a number, treating each problem as a reasoning exercise rather than a formula hunt. Rated 5.0 by students.

Thirty years of teaching physics and holding a state certification means Michael has watched thousands of students hit the same stumbling blocks in calculus-based mechanics — the shift from memorizing kinematic equations to actually deriving motion from Newton's second law in integral form. His molecular biology graduate work gave him the quantitative rigor to teach across disciplines, and he uses that cross-training to connect force diagrams and energy methods to the kind of systematic reasoning that clicks on free-response problems.