Award-Winning College Chemistry Tutors
serving Hickory, NC

Biochemistry and cell biology coursework at the undergraduate level, followed by Duke medical school, means Tammy has run the full gauntlet of college chemistry — from gen chem fundamentals like electron configurations and VSEPR theory through the organic and biochemical applications that make those foundations matter. She teaches the early material with an eye toward what's coming next, so students aren't just surviving gen chem but actually building fluency they'll use in later courses. Rated 5.0 by students.

Though her primary strengths are in English and test prep, Lexy has tutored science subjects alongside math at the middle and high school level, and she tackles chemistry problems the same way she tackles everything — by designing structured walkthroughs that isolate the underlying logic before drilling the mechanics. Her 34 ACT composite speaks to broad academic fluency, and she leans on that analytical versatility when breaking down topics like stoichiometry or gas laws for students who need the reasoning made explicit.

Biochemistry at Boston College and a biomedical sciences master's at Tufts meant Hunter had to internalize gen chem concepts like electron orbitals, reaction thermodynamics, and acid-base chemistry deeply enough to apply them in advanced coursework where no one stops to re-explain the basics. That trajectory gives him a sharp sense of which college chemistry topics students need to truly own versus merely survive — and he teaches accordingly, drilling the reasoning behind equilibrium expressions or enthalpy diagrams until the logic sticks. Rated 5.0 by students.

Three semesters as a TA for anatomy and physiology — two as lead — gave Dimitry a front-row seat to exactly where pre-med students' gen chem foundations crack under pressure, especially around acid-base chemistry, molecular interactions, and the thermodynamic principles that quietly underpin every biological system they'll study later. His chemistry minor at UNC Chapel Hill and pre-med coursework mean he teaches college chemistry with one eye on what's coming next, connecting topics like equilibrium and reaction energetics to the biomedical contexts where they'll actually be tested again. Rated 4.9 by students.

Taylor worked as an official tutor in Wake Forest's Chemistry Department, where she clarified everything from thermodynamics to acid-base equilibria for fellow undergrads tackling general chemistry sequences. Her biochemistry concentration means she can also show college students how gen chem concepts like intermolecular forces and reaction energetics directly feed into upper-level coursework, giving each topic a clearer purpose.

Currently studying biology, Nicole tackles college chemistry from the perspective of someone still in the trenches — she's recently worked through the same gen chem gauntlet of electrochemistry, solution stoichiometry, and thermodynamic laws that her students are facing right now. That proximity to the material means she remembers exactly which concepts felt opaque the first time and how to reframe them so they click. Holds a 5.0 rating.

Tackling college chemistry right now as a minor at UNC Charlotte, Kelsey knows exactly which concepts trip students up in gen chem and organic — equilibrium calculations, acid-base titrations, molecular orbital theory. She brings the perspective of someone who recently worked through these courses herself and now reinforces that knowledge daily as a tutor at the university's academic excellence center.

Currently deep in a chemistry degree, Amanda is taking the same upper-level courses — physical chemistry, organic chemistry, thermodynamics — that reveal whether someone truly understood gen chem or just survived it. That proximity to the material means she knows exactly which early concepts, like electron configuration or VSEPR theory, tend to quietly fall apart when the coursework ramps up, and she tackles those gaps directly rather than papering over them with formula sheets.

I am a chemist having majored in Organic chemistry for my BS degree and environmental chemistry for my MS degree, in my career as an analytical chemist both in Research and development in a plastics industry and analytical chemist in environmental health laboratories, I have been a lifetime student of organic chemistry and chemistry in general. My passion has always been to help student excel in chemistry, especially organic chemistry which has endless applications in the present word. I started by tutoring my own children in high school and helped my daughter graduate with a BS in chemical engineering at North Carolina State University and my son as an electrical engineer from the same college. Organic chemistry bogs down students if they are behind in some basic principles such as understanding the periodic table and why the elements are arranged in specific patterns, i.e. periods and groups. They must be very clear about the filling of electrons in various shells and orbitals. A basic understanding of this will open doors to many aspects of the bonding theory, hybridization of carbon and its tetrahedral nature and the ability of carbon to infinitely bond with itself to make long chains and many complex derivatives. Chemical reactions take place at the outermost, also referred to as the valency shell and therefore understanding the orbitals in the outer shell helps the student tell what a sigma or a Pi bond is and other characteristics of a bonded atom such as lone pair of electrons which plays important roles in reactions and ligand chemistry. My favorite hobby is soccer and football. I love music so I usually play my guitar for leisure. I spend a lot of time studying interesting topics in organic chemistry on the internet.

A bio-organic chemistry degree means Alex has lived through the full gen chem sequence and then pushed those concepts further — into reaction mechanisms, molecular orbital theory, and the quantitative problem-solving that upper-level chemistry demands. That depth shows up when tackling topics like chemical kinetics or periodic trends, where he can explain not just how to solve a problem but why the underlying chemistry behaves the way it does.

Matt's neuroscience degree with a chemistry minor means he didn't just pass gen chem — he built on it through upper-level coursework in biochemistry and physiology, where concepts like molecular bonding, reaction energetics, and equilibrium stop being abstract and start explaining how biological systems actually function. That applied perspective lets him teach college chemistry topics by anchoring them to something concrete, which tends to make the leap from lecture notes to problem sets much less painful. Rated 5.0 by students.

Neuroscience at Brown meant Crony couldn't just skim gen chem — courses in neurochemistry and cellular biology demanded real fluency with topics like electrochemistry, molecular interactions, and reaction energetics long after the introductory sequence ended. That background gives him a sharp sense of which college chemistry concepts actually need to be internalized versus merely memorized, especially for students heading into upper-level STEM work. Rated 4.6 by students.

Thermodynamics, quantum numbers, and reaction kinetics all demand the kind of mathematical fluency that comes naturally to Nima as a Duke physics student. He unpacks college chemistry problems by grounding each calculation in the underlying physical principles, which makes topics like enthalpy, molecular orbital theory, and electrochemistry far more intuitive.

A chemistry minor at Duke alongside her biology major, Lenique spent years working through thermodynamics, equilibrium, and reaction kinetics at a level that prepared her for the rigors of medical school at Yale. She breaks down tough concepts like molecular orbital theory and acid-base chemistry by connecting them to real biological systems, which makes abstract ideas click faster.

Working in a research lab at UTHealth, Emily applies gen chem principles like reaction kinetics, buffer systems, and molecular interactions at the bench every day — which means she can show students what these concepts look like beyond the textbook problem set. Her biochemistry and cell biology degree built the content depth, and active research keeps it sharp, especially for topics like solution chemistry and thermodynamics where real-world context makes the logic easier to hold onto.

Organic reaction mechanisms, thermodynamic versus kinetic control, and multi-step synthesis problems demand more than memorization — they require a framework for thinking through electron movement and molecular behavior. Maggie studied Molecular, Cellular, and Developmental Biology as an undergraduate and now applies that foundation daily in her Stanford medical program. She unpacks each mechanism by tracing exactly why electrons move where they do, making complex transformations feel logical.

Between equilibrium expressions, thermodynamic calculations, and orbital theory, college chemistry demands a level of abstraction that introductory courses don't always prepare students for. Amber digs into the quantitative backbone of these topics, connecting the math to the molecular-level reasoning so that concepts like Gibbs free energy or rate law derivations make sense rather than just get memorized. Her breadth across chemistry and advanced math gives her a rare versatility in tackling problem sets.

Studying biochemistry at Boston College means Kellie is taking college chemistry right now — she knows which exam questions are tricky, which textbook explanations fall flat, and which shortcuts actually hold up under pressure. She breaks down topics like electron configurations, VSEPR geometry, and solution stoichiometry with the clarity of someone who just wrestled with them herself and figured out what finally made them click.

First-year med students don't forget what tripped them up in gen chem — and Nishad, currently at Sidney Kimmel Medical College at Thomas Jefferson University, uses that recent memory to zero in on the conceptual breaks that derail students in topics like electron configuration, chemical bonding, and equilibrium. His premed background means he's taken college chemistry with the same stakes his students face, and he teaches it by connecting the molecular-level reasoning to the calculations so neither piece feels like it's floating on its own.

Samantha studied Chemistry & Chemical Biology at Cornell with a food science concentration, so she's tackled everything from organic reaction mechanisms to thermodynamics and spectroscopy at the college level. She teaches tricky concepts like equilibrium constants, electrochemistry, and molecular orbital theory by building visual models that connect the math to what's physically happening at the molecular scale.

Between his physics training and years of hands-on biochemistry research, Matthew tackles college chemistry from both the theoretical and applied sides. He's especially effective with thermodynamics, molecular orbital theory, and kinetics — topics where students often struggle to bridge lecture material and problem sets. His lab experience at Columbia gives him concrete examples that make abstract concepts like enthalpy and entropy click.