Award-Winning Physical Chemistry Tutors
serving South Bend, IN

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.

I am a public school teacher (Chemistry and Living Environment) but can tutor most sciences. I truly believe in differentiated learning and once I know the learning style of a student, I tailor my teaching style for optimum time usage. I love to utilize stories from my real life experiences in labs to help students understand the implications of their science education.

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.

Computational linguistics might seem far from p-chem, but Justin's SAT-level math chops and his chemistry coursework give him enough quantitative grounding to tackle the foundational concepts — working through state functions, basic thermodynamic relationships, and the algebra behind equilibrium expressions. He's strongest at slowing down the notation-heavy steps that lose students early in a p-chem sequence, making sure each symbol maps to something physically real before moving forward.

Medical school at the Medical College of Wisconsin means Abrahim encounters p-chem's core concepts daily — reaction kinetics in pharmacology, thermodynamic energy balances in physiology, and the quantum mechanical principles behind spectroscopic diagnostics. His UCLA biology degree and 34 ACT demonstrate the mathematical fluency needed to work through derivations involving state functions, equilibrium constants, and entropy calculations without losing sight of what the chemistry actually describes. Rated 5.0 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.

Teaching high school chemistry daily means Kathleen regularly translates thermodynamic concepts like enthalpy, entropy, and equilibrium into language that clicks — a skill that carries directly into the more calculus-heavy treatment those same ideas get in a p-chem course. Her M.S.Ed from Penn and chemistry degree give her both the content depth and the instinct for spotting exactly where a derivation stops making sense to a student. Rated 5.0 by students.

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.

Between biochemistry, organic chemistry, and physical chemistry, Samantha sits at the intersection where biology meets the math-heavy formalism of thermodynamics and kinetics — she understands both the molecular systems and the derivations that describe them. She breaks apart intimidating topics like Gibbs free energy or chemical equilibria by tying each variable back to the biological and chemical processes students already recognize from earlier coursework. Rated 5.0 by students.

Nicholas studied biology with enough chemistry and physics depth to encounter the thermodynamic and kinetic frameworks that p-chem builds on — enzyme energetics, gas laws, equilibrium — before they get buried under pages of calculus. His 33 ACT reflects strong quantitative reasoning, and he leans on that cross-disciplinary perspective to clarify why a concept like enthalpy or a phase transition behaves the way it does at the molecular level, not just how to push through the derivation.

Differential equations, calculus, and organic chemistry all sit in Nate's regular teaching rotation, which means he's constantly moving between the math and the chemistry that p-chem smashes together — and he knows exactly where students lose the thread between the two. He zeroes in on building intuition around concepts like chemical potential and equilibrium thermodynamics by tying each derivation back to the reaction behavior students already recognize from general and organic chemistry. Rated 5.0 by students.