As a curriculum developer building courses for middle and high schoolers, Elena knows exactly how to make dense material click — including the scientific vocabulary, classification systems, and cause-and-effect reasoning that science coursework demands. Her Religious Studies training at McGill involved rigorous textual analysis and structured argumentation, skills she now channels into teaching students how to read scientific texts carefully, interpret what an experiment actually shows, and explain their reasoning clearly.

Engineering is applied science, and Dillon spent years learning physics, chemistry, and materials science before becoming a classroom teacher. He's particularly strong at explaining how scientific principles connect to real phenomena — why steel behaves differently under heat, how forces balance in a structure, what variables actually matter in an experiment. Students get someone who's used the scientific method professionally, not just read about it.

A law degree builds a specific habit of mind — read dense material carefully, extract the key claims, and test them against the evidence — that transfers directly to how students need to approach science at the middle and high school level. Jera applies that same analytical framework to interpreting lab data, understanding cause-and-effect in biological or physical systems, and writing up results in clear, precise language. Her economics background also means she's comfortable with the quantitative side: graphs, rates, and making sense of numerical relationships.

While science isn't Michael's primary discipline, his CS background gives him a structured, evidence-based approach to scientific reasoning — forming hypotheses, interpreting data, and understanding how variables interact. He's especially effective at connecting scientific concepts to the computational and mathematical thinking students already use in other subjects.

A double bachelor's in Biological and Physical Sciences gives Michelle genuine depth in science content, from life science and ecosystems to basic chemistry and physics concepts. She doesn't just review vocabulary — she connects scientific ideas to real observations so students understand the "why" behind what they're learning. That combination of science training and classroom teaching experience makes her especially effective with students preparing for middle school science.

While science isn't Trace's core specialty, his research background — including an LLM thesis and undergraduate honors work — means he knows how to teach the scientific method, data interpretation, and evidence-based reasoning. He's a strong fit for students who need support organizing lab reports, understanding experimental design, or building the reading comprehension skills that science coursework increasingly demands.

Karen's English literature degree might not scream science, but her physical science and astronomy tutoring draws on the same close-reading instincts she uses with texts — pulling meaning from diagrams, parsing dense passages, and asking students to explain observations in their own words rather than parroting definitions. Her 32 ACT and 4.9 rating suggest those analytical skills land with students across subjects.

From Newtonian mechanics to general chemistry to the biological sciences tested on the MCAT, Ishaan's science background spans an unusually wide range. He breaks down intimidating topics — free-body diagrams, stoichiometry, cellular respiration — into step-by-step reasoning chains that make each problem feel approachable. Students rate him 5.0.

I'm a recent college graduate with degrees in Biological Sciences and Russian from Ohio University. During my time there, I tutored students in a variety of subjects, including biology, chemistry, and Spanish. In addition, I worked as both a peer advisor and teaching assistant, which gives me insight into the learning strategies and study skills that students need to succeed. As a tutor, I like to focus on doing actual problems with students because it is the most effective way to immediately identify their strengths and weaknesses and to address them. In my free time, I like to lift weights, read books, and spend time with my friends.

I am a recent graduate with a master's in electrical engineering from Case Western Reserve University. I won the Bill and Melinda Gates Millennium Scholarship which covers full tuition up to Ph.D. I was on the Dean's List for three consecutive years. Additionally, I won the OZY Media Genius Award in 2015 to work on high-temperature superconductors. I currently work as a Technology Analyst at Accenture. I am also seriously considering whether I should go for a Ph.D. or not.

An exercise science degree is essentially a crash course in applied science — biomechanics, human physiology, chemistry, and physics all woven together. Nikolas uses that interdisciplinary background to explain scientific concepts through tangible examples, whether it's how forces act on a joint or how chemical gradients drive cellular processes. His 5.0 rating speaks to how well that approach clicks with students.

A chemical engineering degree means Seung didn't just study science — he applied it daily across chemistry, physics, and biology-adjacent coursework. He explains concepts like stoichiometry, energy transfer, and the scientific method by grounding them in real examples rather than abstract definitions. Students who feel lost in science often just need someone to connect the vocabulary to something concrete, which is exactly what Seung does.

As a biology major in Ohio State's Biological Sciences Scholars program, Olivia lives inside the scientific method daily — designing experiments, interpreting data, and connecting concepts across chemistry, biology, and physics. She breaks down tricky topics like cell processes or chemical reactions by tying them to real-world examples that make the material easier to retain.

Nora's engineering lab work gives her a practical lens on science topics like energy transfer, forces, and the scientific method — she can explain why a concept matters in the real world, not just on a worksheet. Her experience tutoring students across a wide age range means she adjusts how she explains things like cell biology or chemical reactions depending on what clicks for each learner.

Cell physiology, immunology, and biochemistry are Nathan's home turf — he earned his B.S. in Natural Sciences from the University of Akron and recently sat for the MCAT. Whether a student is puzzling over mitosis, balancing chemical equations, or interpreting data from a lab report, Nathan connects each concept to a bigger biological or chemical picture that makes individual facts easier to retain.

I am always willing to help and I will try my best to help students who desire further understanding of the subject at hand.

A Human Nutrition degree at Ohio State meant Jonathan took organic chemistry, biochemistry, microbiology, and molecular genetics back to back — so he understands how scientific disciplines layer on top of each other. He connects concepts across those fields, explaining how a cell biology principle shows up again in genetics or why understanding chemical bonds matters for metabolism. That cross-disciplinary perspective makes complex science topics feel less isolated and more intuitive.

Actuarial science is essentially applied probability and statistics — John spends his coursework at Ohio State quantifying risk, modeling outcomes, and interpreting data sets, which means the quantitative side of science (calculating rates, reading graphs, working through proportional relationships) comes naturally to him. His 32 ACT composite confirms he can handle science material beyond just the math, including the passage-based reasoning and experimental interpretation that general science courses demand.

Few science tutors can move seamlessly from explaining mitosis to balancing redox reactions to walking through fluid dynamics problems, but Emeric's biochemistry training sits right at the intersection of biology, chemistry, and physics. He pinpoints exactly where a student's understanding breaks down — whether it's mole conversions or cell signaling — and rebuilds from that specific gap. Rated 5.0 across his sessions.

Kathryn approaches science by teaching students how to read experiments — forming hypotheses, interpreting data tables, and connecting observations back to key concepts. Her analytical training in economics gives her a structured way of tackling the scientific method that translates well to younger learners encountering it for the first time.

Industrial engineering coursework covers a surprising amount of science — physics, chemistry, and statistics all show up in systems modeling and process optimization. Cassidy applies that quantitative training to break down scientific concepts like energy transfer, experimental design, and data interpretation into steps that actually make sense to younger learners.

A psychology degree from Ohio State required rigorous coursework in research methods, statistics, and the biological sciences — so Luke understands how to read experiments, interpret data, and connect scientific concepts to real-world observations. He's especially strong at teaching students to think like scientists: forming hypotheses, identifying variables, and drawing conclusions from evidence rather than guessing.

Reading a data table, interpreting an experiment's controls, or connecting a hypothesis to its evidence — these are the core scientific reasoning skills Sean tackles with his students. His approach treats science as a way of thinking through problems rather than a collection of vocabulary terms to memorize.