Award-Winning Chemistry Tutors
serving Barnstable, MA

Stoichiometry and equilibrium tend to be the two places where chemistry students lose their footing, often because the underlying logic gets buried under conversion steps. Yu tackles these topics by making students narrate what's happening at the molecular level before touching any math. Her education training at Harvard sharpened her ability to pinpoint exactly where a concept breaks down for each learner.

Substitute teaching STEM to college-prep high schoolers gave Noel a front-row seat to the exact moments chemistry loses people — usually when the logic of electron configuration or periodic trends has to translate into actual problem-solving with moles and reactions. His public policy background at UChicago might seem unrelated, but it trained him to break complex systems into cause-and-effect chains, which is exactly how chemistry works at every level. Rated 4.9 by students.

Balancing equations and predicting reaction products require a kind of pattern recognition that doesn't come naturally to most students. Erica digs into stoichiometry, equilibrium, and acid-base chemistry by connecting each concept to a tangible example — something her predentistry background makes second nature. She graduated with high honors from Harvard and is entering Columbia's dental program, so she's lived the chemistry-heavy coursework her students are navigating.

Balancing equations is straightforward; understanding why a reaction actually proceeds — that's where chemistry gets interesting and where most students need support. Vania digs into the reasoning behind concepts like reaction kinetics, molecular geometry, and thermochemistry, drawing on her experience tutoring general chemistry at MIT. She connects each topic back to a physical intuition so students aren't just memorizing rules they'll forget after the exam.

A strong chemistry education connects the microscopic world of atoms to the macroscopic behavior you can actually observe — why a solution changes color, why certain reactions release heat, how moles translate bench measurements into molecular counts. Natasha's entire academic life at MIT revolves around chemistry, from stoichiometry and equilibrium to electrochemistry and thermodynamics. She learns best by talking through ideas, and she brings that same conversational energy to every session.

Breno is earning his Doctor of Science in Chemistry at Harvard, which means he doesn't just remember general chemistry — he's actively expanding it. He tackles everything from stoichiometry and equilibrium to thermodynamics and kinetics by tying each concept back to the underlying physical picture, so students build reasoning skills they can apply to unfamiliar problems.

Stoichiometry, equilibrium, acid-base chemistry, thermodynamics — Zachary tackles each of these by grounding abstract rules in the molecular reality underneath them. His dual background in biology and molecular biology means he naturally connects chemical principles to biological applications, which is especially useful for pre-med and pre-health students who need chemistry to stick long-term.

Stoichiometry, equilibrium, and acid-base reactions each demand a slightly different problem-solving approach, and Ken distinguishes between them clearly so students aren't applying the wrong framework. His physics training means he's especially strong on the quantitative side of chemistry — dimensional analysis, gas laws, and thermochemistry calculations come with built-in intuition for units and magnitudes.

Between a chemistry-focused bachelor's degree and a computational science background, Micheal tackles chemistry from both the bench and the equation. He's especially sharp on stoichiometry, equilibrium, and thermodynamics — the conceptual pillars that trip students up when they try to memorize formulas without understanding the underlying relationships.

Two master's-level science programs gave Sara deep, repeated exposure to chemistry — from the organic molecules in plant biology to the biochemistry of human metabolism. She unpacks tricky concepts like stoichiometry, equilibrium, and reaction energetics by linking them to processes students can actually picture happening in the real world.

A chemical engineer by training and a chemistry teacher by profession, Jacques has spent over 25 years breaking down everything from molecular orbital theory to reaction kinetics for high school and college students. His Princeton coursework went deep into physical and organic chemistry, which means he can explain not just what happens in a reaction but the energetic and structural reasons why.

A McGill University chemistry graduate, Nicole breaks down topics like stoichiometry, equilibrium, and molecular bonding by connecting abstract formulas to the real reactions behind them. Her AmeriCorps teaching experience across multiple grade levels sharpened her ability to explain concepts at exactly the right level of complexity. Rated 5.0 by students.

Nicole earned a chemistry minor alongside her biotechnology degree before heading to Duke for graduate school, so general chemistry concepts like stoichiometry, periodic trends, and molecular geometry are deeply ingrained. She explains tricky topics — like why certain compounds are soluble or how to set up an ICE table — by connecting the math to the underlying atomic behavior.

Stoichiometry, equilibrium, thermodynamics, acid-base chemistry — Marc tackles these core chemistry topics with the perspective of someone who uses them daily in medical and biochemical research. His 5.0 rating comes from an ability to make quantitative problem-solving feel intuitive rather than formulaic.

From balancing redox equations to predicting solubility, Will approaches chemistry by tying abstract rules back to what's actually happening at the molecular level. His biology minor and pre-med coursework at Boston University gave him a cross-disciplinary perspective that makes topics like thermodynamics and equilibrium feel less like isolated formulas and more like connected ideas.

Neuroscience coursework at MIT means River has already wrestled with chemistry from the inside out — ion gradients, receptor-ligand binding, and synaptic transmission all demand fluency in electrochemistry, molecular polarity, and equilibrium. That biological entry point gives a concrete hook for teaching general chemistry topics, since abstract ideas like intermolecular forces and acid-base behavior suddenly have a job to do. With medical school next, the depth only runs deeper.

Struggling with mole conversions or balancing redox reactions usually means the concept hasn't been framed the right way yet — not that it's too hard. As a chemistry major and active university tutor at Brandeis, Carina re-explains ideas from multiple angles until one clicks, then has students teach it back to lock it in.

I am also a first year medical student at the Tufts University School of Medicine in Boston. I have extensive experience with premedical classes and have taken and tutored the MCAT exam. I placed in the 97th percentile of the MCAT exam and I understand what the test takers want students to know and how to bridge the gap between knowing the material and doing well on the test. I am always excited when a student finally has that "ah-ha" moment and declares that they now can see how all of these seemingly separate scientific topics are actually all related. The MCAT no longer seems scary, but turns into a means of truly learning this material and providing a strong foundation for the future.

Studying biomedical sciences before nursing school means Albert learned chemistry as the foundation for everything that followed — drug solubility, enzyme behavior, pH regulation in the body all trace back to concepts like intermolecular forces, acid-base equilibria, and reaction rates. He teaches those connections explicitly, so students see why a chemistry principle matters before they're asked to calculate with it. Rated 5.0 by students.

Balancing equations and predicting reaction products clicks faster when you understand the "why" behind electron behavior — and Jennifer's biomedical engineering background means she teaches chemistry through that lens of atomic-level logic. She breaks down stoichiometry, molarity, and thermodynamics by connecting each concept to real applications she encountered in her own coursework.

Balancing equations, mole conversions, and electron configurations all clicked for Jillian during her science coursework at Cornell, where chemistry was woven into nearly every biology and genetics course she took. She approaches tricky stoichiometry and acid-base problems by anchoring them in what's physically happening at the molecular level, not just the math on paper.

Everything in chemistry connects — mole ratios feed into stoichiometry, which feeds into equilibrium, which feeds into thermodynamics — but most courses teach these as isolated chapters. Michael earned his degree in Chemistry & Chemical Biology from Cornell magna cum laude, and he's especially good at showing students how each new topic builds on what they've already learned.

From stoichiometry and equilibrium to thermodynamics and acid-base reactions, Anthony tackles chemistry the way an engineer would — systematically, with an emphasis on understanding the logic behind each step. His dual-degree training in biomedical engineering at BU and Tufts gave him deep fluency in both general and applied chemistry.

Studying pharmacy at Northeastern means Amy lives in chemistry — from reaction stoichiometry and equilibrium to the thermodynamics behind drug interactions. She brings that daily immersion into her tutoring, unpacking problems step by step so students can trace exactly where a calculation goes from setup to answer. Her 4.9 rating from past students suggests the approach works.

Sarah's approach to chemistry leans heavily on dimensional analysis and conceptual reasoning, two skills she sharpened across her public health and biomedical science coursework. Whether the topic is stoichiometry, gas laws, or equilibrium expressions, she walks through the logic step by step so students can tackle unfamiliar problems on their own.

Working in a cancer immunology lab at MIT means Zach lives chemistry every day — balancing reaction stoichiometry, understanding molecular interactions, and interpreting thermodynamic data. He tackles everything from electron orbital configurations to acid-base equilibria by anchoring each concept in how molecules actually behave. Students walk away understanding the logic behind the periodic trends, not just memorizing them.

A lot of chemistry tutoring stays at the surface — balancing equations, plugging into formulas. Patrick digs into the molecular-level reasoning behind concepts like equilibrium, thermodynamics, and reaction mechanisms, drawing on the quantitative rigor of his PhD research. His 5.0 rating speaks to how well that deeper approach lands with students.

Kelsey is a chemical engineering PhD student at MIT whose entire academic life revolves around chemistry — thermodynamics, kinetics, stoichiometry, and molecular behavior. She unpacks tricky topics like equilibrium constants and redox balancing by tying them to tangible scenarios from her own lab and coursework. Her 4.9 rating speaks to how clearly she communicates ideas that textbooks often make unnecessarily dense.

Andy's academic background in the physical sciences gives him a solid handle on chemistry fundamentals — stoichiometry, atomic structure, and balancing reactions. His computer science training also means he's comfortable walking through the math-heavy parts of chemistry, like unit conversions and mole calculations, that often trip students up.

After completing a full chemistry sequence as part of her exercise biology degree, Emma tackles general chemistry with a focus on the conceptual logic behind each topic — why electron configuration dictates bonding behavior, how intermolecular forces explain phase changes. She's especially effective at connecting the math side of chemistry (molarity, gas laws, enthalpy) to the conceptual side so neither feels disconnected.

Balancing equations, understanding molarity, and predicting reaction products all click faster when someone can explain the underlying logic. Priyanka earned a 1560 SAT and completed extensive chemistry coursework through BU's accelerated medical program, giving her a strong command of both general and organic chemistry principles.

A strong grasp of chemistry underpins everything Sydney studied in her neuroscience and biomedical sciences training — from molecular bonding and reaction equilibria to acid-base chemistry in physiological systems. She tackles chemistry by connecting abstract concepts like electron orbitals or stoichiometry to the biological applications that make them tangible. Her approach of having students teach concepts back to her catches misconceptions early, before they compound.

A medical student at Tufts who spent four years tutoring sciences at BYU, Eric knows chemistry from both the classroom and the clinic. He breaks down topics like stoichiometry, equilibrium, and acid-base reactions by tracing the reasoning behind each step, so students build the kind of understanding that holds up on exams without last-minute cramming.

From stoichiometry to equilibrium to thermodynamics, chemistry rewards students who think in terms of "why" rather than "what." Katharine tackles each unit by building the conceptual logic first — why Le Chatelier's principle predicts a specific shift, or what's actually happening during a titration at the molecular level — then layers in the math and notation.

I'm well versed in areas of General Chemistry, as well as Algebra and Geometry.

A lot of chemistry confusion comes down to not understanding what's happening at the molecular level — why certain reactions are exothermic, how electron configuration drives bonding, what equilibrium actually looks like in a beaker. Desiree connects these invisible processes to everyday examples, drawing on her chemical engineering background to make the abstract tangible. She's rated 5.0 by students.

As a chemistry major who works hands-on at a nuclear research reactor, Amber lives this subject. She digs into everything from stoichiometry and equilibrium to atomic structure and thermochemistry, connecting each concept to the kind of real laboratory reasoning that makes abstract ideas concrete.

Stoichiometry, equilibrium, acid-base titrations — chemistry has a reputation for being a wall of formulas, but each one tells a story about what atoms are actually doing. Darian's molecular biology background gives him a knack for explaining why reactions behave the way they do, which makes problem-solving far more intuitive than rote calculation.

Whether it's balancing redox equations, interpreting periodic trends, or working through gas law problems, chemistry demands that students think in multiple representations — formulas, diagrams, and words — simultaneously. Suraj identifies the specific step where a student's reasoning breaks down and rebuilds clarity from there, an approach that has earned him a 5.0 rating.

Balancing equations and stoichiometry are where most chemistry students first feel lost, and the confusion only deepens once molecular geometry and thermodynamics enter the picture. Allie's behavioral neuroscience program required rigorous chemistry coursework, so she tackles these topics with the comfort of someone who's used them across multiple science disciplines.