The jump from memorizing element symbols to actually understanding why reactions happen is where most high school chemistry students get stuck. Maddie unpacks topics like mole conversions, Lewis structures, and reaction types by showing the logic behind each rule, drawing on her biochemistry training and her role tutoring chemistry at Rice.

Pursuing a PhD in Biomedical Science at Morehouse School of Medicine means Eugene uses chemistry daily — particularly when tracing how metabolic pathways, drug interactions, and cellular processes depend on concepts like chemical bonding, reaction energetics, and pH. That ongoing immersion gives him a practical vocabulary for explaining high school topics like nomenclature and stoichiometry, tying the calculations to the biomedical questions that make them worth learning.

The jump in high school chemistry usually happens around moles and stoichiometry, where abstract ratios replace the tangible experiments from earlier units. Adel tackles that transition by teaching students to think in terms of particle-level stories — what's actually happening to atoms during a reaction — before layering on the math. His biochemistry degree from Georgia Tech keeps the explanations precise without making them unnecessarily complicated.

I'm a 25 year old recent J.D. graduate of Georgia State College of Law. I attended Emory University for my undergraduate studies where I was awarded a double major in Political Science and History. Currently I am interning with CAIR as I prepare for the February Georgia Bar Exam.

A lot of high school chemistry clicks once you stop treating it as a list of rules and start seeing the logic underneath — why electronegativity predicts bond type, or how Le Chatelier's principle follows naturally from equilibrium math. Corey's engineering and medical physics training gave him that structural understanding of chemistry, and he's skilled at making it accessible to students encountering these ideas for the first time.

Grad-level chemical engineering means Marlow doesn't just remember high school chemistry — she's still actively using concepts like thermodynamics, reaction kinetics, and stoichiometry in her current research and coursework. That daily fluency shows up when she walks through something like gas law calculations or enthalpy changes, because she can explain the molecular-level reasoning behind the math rather than just demonstrating the steps. Rated 5.0 by students.

Balancing equations, predicting products, and navigating the mole concept trip up most high school chemistry students at some point. Corey's nuclear engineering training at Georgia Tech means he thinks in atoms and reactions every day, and he teaches dimensional analysis and stoichiometry as logical step-by-step processes rather than formulas to memorize.

Majoring in chemistry at Williams College — where small classes meant actually working through reaction mechanisms and lab techniques alongside professors, not just sitting in a 300-person lecture — gave Matthew a thorough grounding in everything from stoichiometry to equilibrium and electrochemistry. He explains gas law problems and mole calculations by connecting them back to the atomic-level behavior driving the math, which tends to click for students who've been memorizing steps without understanding the reasoning. Rated 5.0 by students.

Balancing equations is one thing; understanding *why* a reaction proceeds is another. Kaustubh's AP Chemistry experience and neuroscience coursework at Emory mean he can unpack topics like stoichiometry, equilibrium, and acid-base chemistry by tying them to the underlying atomic behavior that drives each concept.

Kellie's chemical engineering degree means she didn't just study chemistry — she applied it daily across thermodynamics, stoichiometry, and reaction kinetics. She breaks down tricky topics like mole conversions and equilibrium by connecting them to real-world processes students can visualize. That practical grounding makes abstract high school chemistry concepts click faster.

Studying Chemical & Biomolecular Engineering at Georgia Tech means Brittany doesn't just know high school chemistry — she's applying concepts like stoichiometry, thermodynamics, and reaction kinetics to solve real engineering problems every week. That daily immersion gives her a practical fluency when explaining topics like gas laws or equilibrium, because she can show students exactly where the chemistry leads and why the underlying math matters.

Aaron actually holds a chemistry degree, which means topics like equilibrium, redox reactions, and periodic trends aren't things he reviewed for tutoring — they're the substance of his undergraduate training. He digs into the quantitative backbone of high school chemistry, especially the dimensional analysis and mole-ratio reasoning that tie stoichiometry problems together, so students learn to navigate calculations with confidence rather than confusion.

I am a graduate of Emory University in Atlanta, GA, where I received my Bachelor of Sciences in Anthropology and Human Biology with a minor in Predictive Health. After I graduated, I worked as a laboratory assistant at a cardiology lab at Emory University School of Medicine. While I am interested in chemistry, math among others in STEM, I am very passionate about biotechnology and general biology including genetics, physiology, and cell biology. As an aspiring dentist, I am currently working towards getting a dental degree. During my undergraduate career, I had several experiences of helping other students with learning materials and quiz/exam preparation. I am excited to have another opportunity to help other students again through Varsity Tutors because I truly believe that education is absolutely imperative to a better quality of life and that everyone is fully capable of learning and making potentials to reality. As for tutoring, I put much emphasis on active participation and positive reinforcement. A learning environment should stay interactive, fun, but challenging. By encountering challenges, I believe a student's potential could rise. Besides my life in academia, I enjoy traveling, photography, and physical activities including hiking, running, and skiing during winter.