Emily's undergraduate degree in Molecular, Cellular, and Developmental Biology and her MPH in Epidemiology give her deep fluency in both life sciences and the quantitative reasoning that underpins them. She unpacks topics like cell division, genetics, and experimental design by tying abstract concepts to real-world examples from public health research. Rated 5.0 by students.

Biomedical engineering sits at the intersection of biology, physics, and chemistry — so Christine doesn't teach these sciences in isolation. Whether a student is struggling with cell biology concepts or force diagrams, she connects each topic back to real systems like the mechanics of blood flow or how electrical signals travel through neurons.

Policy analysis at Vanderbilt means Cynthia spends her coursework doing exactly what science asks students to do — reading data, weighing evidence, and building arguments that hold up under scrutiny. She's particularly useful for students who can handle the concepts but struggle to explain their reasoning on lab write-ups or short-answer questions, since clear scientific writing overlaps heavily with the persuasive communication skills her major demands. Rated 5.0 by students.

Zoe's background is in English and ESL instruction, not bench science — but science coursework at the middle and high school level leans heavily on skills she teaches every day: parsing dense textbook passages, decoding unfamiliar vocabulary from context, and writing clear, organized lab reports. Her 4.7 rating speaks to an ability to adapt quickly across subjects, and students who struggle more with the literacy demands of science than the content itself will find her especially useful.

A mechanical engineering degree and years spent teaching physics, statics, quantum mechanics, and special relativity give Samuel an unusually deep bench in the physical sciences. He connects scientific concepts to the underlying math so students understand not just what happens in an experiment but why the equations predict it.

Anna's ACT score of 32 required quick, accurate reasoning through data-heavy science passages — pulling trends from graphs, evaluating competing hypotheses, and spotting flawed experimental designs under time pressure. She leans on that same analytical approach when tutoring science, walking students through how to read a chart or diagram before jumping to conclusions about what it means.

Emily's teaching spans biology, environmental science, ecology, and earth science, giving her an unusually broad view of how scientific disciplines connect. She explains concepts like cellular respiration or nutrient cycling by linking them to real-world systems students can observe. That cross-subject fluency, paired with her education degree, makes complex science accessible without oversimplifying it.

An engineering-track Computer Science student at Ohio State, Sery brings a problem-solving mindset to science that emphasizes understanding why formulas work rather than just when to apply them. Her physics background is especially strong, so she's comfortable walking through force diagrams, energy conservation, and motion problems in detail.

Double-majoring in Latin and Ancient Greek means Shawn spent years dissecting scientific terminology at its roots — most biology, anatomy, and chemistry vocab traces back to the classical languages he studied in depth. When a student stumbles over words like "mitochondria" or "photosynthesis," he can break them into Greek and Latin components that make the meaning click instantly. His 33 ACT and 5.0 rating confirm he handles the analytical and quantitative sides of science just as comfortably.

Mechanical engineering at the University of Dayton means Nicholas lives inside physics, chemistry, and applied science every day. He's been tutoring peers in chemistry and biology since arriving on campus, and he connects abstract science concepts — reaction stoichiometry, energy transfer, cellular processes — to tangible examples that make them easier to recall on exams.