Award-Winning High School Chemistry Tutors
serving Portland, OR

Neuroscience at Brown means Owen didn't just take chemistry — he had to internalize concepts like electrochemistry, equilibrium, and acid-base reactions to understand how neurons actually fire and communicate. That gives him a concrete hook for teaching topics like oxidation-reduction and solution chemistry, because he can show students exactly where the chemistry stops being abstract and starts running a brain. He scored a 33 on the ACT, which speaks to his comfort working across scientific and quantitative reasoning.

Geoscience coursework is chemistry-heavy, and Mariela spent years applying stoichiometry, mineral equilibria, and thermochemistry to real-world rock and water systems. She brings that applied perspective to high school chemistry topics like balancing equations, periodic trends, and reaction energetics — connecting what can feel like abstract rules to tangible processes. Students get someone who's used chemistry as a working tool, not just studied it in isolation.

A chemistry minor on top of a biology degree means Rohan didn't just pass chemistry — he kept using it. He's especially sharp on stoichiometry, equilibrium, and acid-base reactions, and he teaches students quick problem-solving strategies that cut through the clutter of unit conversions and ICE tables. His approach turns intimidating multi-step problems into repeatable processes.

When mole conversions and equilibrium expressions start piling up, high school chemistry can feel more like a math class nobody prepared you for. Channing leans into that overlap deliberately, walking students through the quantitative reasoning behind reaction stoichiometry and gas laws so the calculations make chemical sense. His math fluency means he spots exactly where a student's algebra gaps are creating chemistry confusion.

Enabling children to grasp the foundational knowledge and skills that they will use for the rest of their lives is a wonderful gift. Good education is, in my belief, the single most important thing we can impart to the younger generation. I am very motivated to equip young minds to learn more about the academic world, introducing them to mathematics, English and other subjects such as the physical sciences, arts, and history.

As a passionate educator with a Doctorate in Biochemistry, Biophysics, and Structural Biology from the University of California, Berkeley, I bring over 25 years of dedicated tutoring and classroom experience to the table. My expertise spans subjects such as Algebra, Chemistry (including Organic and General Chemistry), and Statistics. I believe in fostering a supportive learning environment where students feel empowered to engage with complex concepts. By employing a hands-on approach, I connect theoretical ideas to real-world applications, making learning not only relevant but also enjoyable. My commitment to academic success drives me to inspire students to embrace their studies with confidence. Outside of teaching, I enjoy exploring scientific advancements and innovative educational methodologies, continually seeking ways to integrate my business acumen in biotech and education. - Charles Olea, MBA, PhD

I am passionate to help people learn about science, and have 35 years of real world experience and a Ph.D in physical chemistry, which seeks to explain physically observable phenomena in terms of atomic/molecular behavior.

Balancing equations and stoichiometry problems are really just unit-conversion puzzles — and Tammy's engineering background means she's spent years solving exactly those kinds of puzzles under pressure. She breaks down topics like mole ratios, gas laws, and reaction types using the same structured problem-solving approach that carried her through two mechanical engineering degrees.

I am applying to medical schools to attend Fall 2016 and I like to play basketball, go backpacking and volunteer with youth in my free time.

Stoichiometry and gas laws tend to unravel when students skip the conceptual step and jump straight to plugging numbers into formulas — June catches that habit early and rewinds to the underlying logic of mole relationships and conservation principles. Her biology degree and four years of medical school at Georgetown mean she's never far from chemistry, since biochemical pathways and pharmacology keep concepts like equilibrium, reaction energetics, and acid-base behavior in constant rotation. Rated 5.0 by students.

Stoichiometry, electron configurations, equilibrium — high school chemistry is full of concepts that seem unrelated until someone shows you the thread connecting them. Sam's engineering and science training at Purdue gave her a deep comfort with these fundamentals, and she's skilled at turning intimidating formulas into manageable, logical steps.

The jump from memorizing element names to actually understanding mole conversions, electron configurations, and reaction kinetics is where most high school chemistry students get stuck. Karl tackles these sticking points by tying abstract ideas back to tangible examples — his vaccine research, for instance, required precise solution preparation and an intuitive grasp of concentration and dilution that he now brings to tutoring sessions.

As a former chemistry TA at CU Boulder, Niki has already spent semesters explaining mole conversions, reaction balancing, and acid-base equilibria to students seeing these ideas for the first time. Her engineering background adds a practical layer — she can show why Le Chatelier's principle or enthalpy calculations matter beyond the textbook.

Balancing equations and stoichiometry are mechanical once you see the logic, but topics like equilibrium, thermodynamics, and acid-base chemistry require real conceptual understanding. Annie tackles these through her engineering lens, connecting abstract chemical principles to tangible applications — like how reaction kinetics govern drug delivery systems she studies in her biomedical program at Cornell.

Stoichiometry, equilibrium, and acid-base reactions make more sense when a student can see where they lead. Bidyut ties high school chemistry concepts to biomedical applications he's encountered at Johns Hopkins, turning mole calculations and reaction balancing into something more tangible than textbook exercises.

Balancing equations, stoichiometry, and periodic trends all click faster when a student understands the 'why' behind each rule. Erica's science background at Harvard — plus her pre-dental coursework in general and organic chemistry — means she can connect high school chemistry concepts to real-world applications like how acids interact with tooth enamel. Rated 4.9 by students.

Chemical engineering at Vanderbilt means Greg doesn't just know stoichiometry and equilibrium — he uses them daily in reactor design and thermodynamics coursework. That applied perspective lets him show students why balancing equations or calculating molarity actually matters beyond the textbook. Rated 5.0 by students.

Working daily with CRISPR-Cas9 and other biochemical tools in a Yale research lab, Matthew sees chemistry in action — the thermodynamics of enzyme reactions, the pH sensitivity of buffer systems, the molecular interactions that make or break an experiment. That hands-on context sharpens how he teaches high school topics like equilibrium, gas laws, and nomenclature, because he can point to exactly where each concept shows up beyond the textbook.

Whether it's naming ionic compounds, predicting products of a reaction, or working through gas law calculations, Ravnoor zeroes in on the specific concept causing trouble and drills it with targeted practice problems. His 5.0 rating comes from a hands-on style that keeps sessions focused on doing chemistry, not just reading about it.

Premed neuroscience coursework at Rice put Aditi through rigorous chemistry sequences where concepts like equilibrium, stoichiometry, and thermodynamics weren't electives — they were prerequisites for everything that followed. She zeroes in on the periodic table as a predictive tool, teaching students to use trends in electronegativity and atomic radius to reason through bonding and reactivity questions rather than memorize isolated facts. Rated 4.8 by students.

When high school chemistry students hit a wall with mole conversions or balancing redox reactions, the issue is almost always conceptual, not computational. Rahul digs into the 'why' behind each step — why coefficients matter, how electron transfer actually works — drawing on his Cornell chemical engineering background to make the logic visible. He holds a 4.9 rating from students.

Having spent years studying bio-organic chemistry at the college level, Alex knows exactly how high school topics like Lewis structures, nomenclature, and reaction types feed into the harder material that comes later — and he teaches them with that bigger picture in mind. He breaks down problems step by step, especially in areas like dimensional analysis and mole conversions, so the math side of chemistry stops feeling like a separate skill from the conceptual side.

Balancing equations and predicting reaction products can feel like learning a foreign language, but Eric breaks inorganic chemistry concepts down into logical steps that build on each other. His science training across biology and ecology gives him a knack for connecting chemical principles — like bonding and stoichiometry — to real-world processes students can actually picture.

Neuroscience at Yale meant David didn't just take chemistry — he needed it to work, especially when tracing how ion channels, neurotransmitters, and cellular signaling depend on concepts like electronegativity, polarity, and equilibrium. That gives him a concrete answer when students ask why any of this matters, and it shapes how he teaches topics like chemical bonding and reaction energetics: rooted in what molecules actually do, not just what shows up on a worksheet.

Chemistry can feel like learning a new language — balancing equations, interpreting the mole concept, predicting reaction types — and Asta treats it that way, breaking each topic into its own vocabulary and logic. Her experience tutoring internationally in Hong Kong gave her practice explaining scientific concepts to students from varied academic backgrounds. Rated 5.0 by students.