Award-Winning Physical Chemistry Tutors
serving Gilbert, AZ

Conservation biology at ASU gave River a working familiarity with the thermodynamic and kinetic principles that p-chem puts under a mathematical microscope — energy flows in ecosystems, reaction energetics in biochemical cycles, and the statistical behavior of molecular populations. That biology-first perspective lets River approach topics like Gibbs free energy and equilibrium constants by starting with the physical intuition before wading into the calculus. Rated 4.8 by students.

Maurice's teaching background in special education sharpens his ability to break down the layered abstractions in p-chem — when a student is lost inside a Gibbs free energy derivation, he isolates exactly which conceptual step broke down and rebuilds from there. His coursework across calculus, statistics, and chemistry gives him enough quantitative range to walk through the thermodynamic and kinetic formalisms, even if p-chem isn't his deepest specialty.

Co-teaching an organic chemistry lab at UC Berkeley and holding review sessions for general chemistry gave Yuxuan firsthand experience breaking down reaction energetics and equilibrium — concepts that p-chem revisits with far more mathematical rigor. His biochemistry training means he's already worked through the thermodynamic and kinetic frameworks underlying enzyme behavior and molecular interactions, so he can trace a derivation back to the chemistry it actually describes. Rated 4.9 by students.

A PhD in biophysics and a master's in organic chemistry mean Amin has worked through the quantum mechanics, statistical mechanics, and thermodynamics of p-chem from both the physical and molecular sides — deriving partition functions in one course, then applying free energy calculations to real chemical systems in the next. That dual perspective lets him teach a topic like the Boltzmann distribution or a phase diagram by moving fluidly between the mathematical formalism and the chemistry it's actually describing.

Pre-med coursework at Rice plus dual degrees in environmental sciences and ecology meant Daniel was solving energy balance problems and applying thermodynamic reasoning to natural systems well before encountering p-chem's formal derivations. His lab technician work at Rice keeps the quantitative skills sharp — setting up calculations involving enthalpy, equilibrium, and kinetic models is part of the daily routine, not a distant textbook memory.

An applied mathematics degree plus active graduate math coursework gives Drisana the calculus fluency that p-chem demands — she's comfortable with the differential equations, multivariable integrals, and linear algebra that show up in everything from quantum mechanical wave functions to statistical thermodynamics. Where many chemistry students struggle because the math outpaces them, she tackles derivations from the opposite direction, building physical meaning onto mathematical structures she already knows cold. Rated 5.0 by students.

This is Jacob's home turf. He earned his Ph.D. in Physical Chemistry from UC Berkeley and now conducts research at Northwestern, so topics like quantum mechanics, statistical thermodynamics, and spectroscopy are part of his everyday work. He walks students through the math-heavy derivations that make p-chem notoriously difficult, connecting each equation back to the physical picture it describes.

Biochemistry lab work and a dual bachelor's in arts and biochemistry mean Andrew has already applied the thermodynamics, kinetics, and quantum mechanical concepts that make p-chem brutal — calculating free energy changes in enzyme systems, modeling reaction rates at the molecular level. He unpacks the heavy calculus in derivations by keeping one foot in the real chemistry, so a partition function or a phase diagram reads as a description of molecular behavior rather than an exercise in pure math. Rated 4.9 by students.

Pursuing a dual Ph.D./Pharm.D. at UConn with graduate work in medicinal chemistry means Xhesika encounters the thermodynamic and kinetic formalism of p-chem as daily working tools — calculating drug stability, modeling reaction pathways, predicting how molecular interactions shift with temperature and pressure. She teaches derivations like Maxwell relations and Clausius-Clapeyron by tying each variable back to the pharmacological systems where she actually uses them, so the math carries chemical weight instead of feeling like abstract symbol-pushing.

A PhD in chemical engineering means Alexander spent years deriving and applying the exact thermodynamic frameworks — equations of state, phase equilibria, transport phenomena — that p-chem students encounter stripped of their engineering context. His biosystems engineering background adds a second layer, connecting statistical mechanics and kinetics to real molecular systems rather than leaving them as abstract formalisms. Rated 4.9 by students.

Biology coursework builds a surprising amount of p-chem intuition — enzyme kinetics, membrane energetics, and metabolic thermodynamics all run on the same free energy and rate equations that dominate a physical chemistry sequence. Ade uses that biological grounding to make abstract derivations tangible, turning something like a Boltzmann distribution into a concrete picture of how molecules actually partition energy across states.

Biomedical engineering at BU and Tufts meant Anthony lived in the math that makes p-chem intimidating — differential equations, thermodynamic modeling, and the kinetics of biological systems — long before applying it to physical chemistry specifically. His research background studying neurodegenerative disease therapies keeps him fluent in the quantitative reasoning behind concepts like Gibbs free energy, phase equilibria, and reaction rate theory. Rated 4.9 by students, he connects each derivation to the physical system it describes so the notation carries real meaning.

I grew up in the Boston area and now live in Citrus County, Florida. I graduated from MIT in chemical engineering and worked for many years as a chemical process engineer, so I have a strong background in math and science, especially chemistry and thermodynamics. I've also been granted six U.S. patents. When the pandemic hit us, I moved to Florida and did part-time work as a chess tutor, then became a substitute teacher in the middle and high schools in our district. I enjoyed working with the students, many of whom had difficulty learning in big classes with many disruptions. I found that I could best help these students by using real-world examples to teach difficult concepts in a new way. Often, then, the student would come away with a new perspective and a much better understanding of the concept. I was happy to be able to help. These days as a VT tutor, I continue to use, whenever possible, real-world examples in my own material in chemistry and thermodynamics.

Thermodynamic potentials, quantum mechanical models, kinetic rate laws — physical chemistry demands comfort with both rigorous math and chemical intuition simultaneously. Mark's chemical engineering degree from Yale required multiple semesters of p-chem coursework, and he tackles the subject by grounding intimidating derivations in the physical phenomena they describe. He's especially strong at walking through the calculus embedded in topics like entropy and partition functions.

Cornell's chemical engineering curriculum puts you through p-chem at an intense pace — Rahul graduated magna cum laude, which means he didn't just survive thermodynamics, quantum mechanics, and kinetics but internalized the reasoning behind each derivation. He pushes past rote symbol manipulation to make sure students can articulate why a particular state function applies or what a phase boundary physically represents. Rated 4.9 by students.