Award-Winning Science Tutors
serving Dayton, OH

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.

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.

A social sciences master's degree means Lauren spent years doing what science coursework actually asks of students — reading studies, questioning methodology, and pulling defensible conclusions from messy data. She's particularly good at walking through how to set up a controlled experiment and explain results in plain language, since her own graduate research required exactly that. Rated 5.0 by students.

Getting a young student excited about the water cycle or animal adaptations is one thing; teaching them to actually observe, predict, and record like a scientist is another. Arielle brings her classroom teaching experience to science sessions, turning topics like states of matter or plant life cycles into hands-on reasoning exercises that build real scientific thinking skills.

A current medical student with a UCLA biology degree, Vinay connects scientific concepts to real mechanisms rather than leaving them as abstract definitions. Whether the topic is cellular respiration, Newton's laws, or chemical bonding, he walks through the underlying logic so students can predict outcomes instead of just memorizing facts. His 95th-percentile MCAT score reflects the same deep-process approach he brings to every science session.

Latin study turns out to be surprisingly useful preparation for science — Amy's experience with Latin means she can teach students to decode unfamiliar scientific terminology by breaking words into their Greek and Latin roots, turning intimidating vocabulary into something logical and predictable. Her English major at Penn also sharpened the close-reading skills that matter when students need to pull key information from dense textbook passages or interpret what a lab procedure is actually asking them to do.

Emma's Human Development coursework at Cornell included hands-on work with SPSS statistical software and research methods — designing studies, collecting data, and interpreting results — which grounds her science tutoring in actual lab-style thinking rather than textbook definitions alone. She's particularly good at walking students through how to set up a fair experiment and explain their findings clearly, skills she sharpened while building weekly lesson plans for kids from preschool through twelfth grade at Chautauqua Institution.

A chemical engineering degree from Cornell means Rahul has deep, hands-on fluency across chemistry, physics, biology, and thermodynamics — not just textbook familiarity. He unpacks scientific concepts by tracing them back to fundamental principles, so students learn to reason through unfamiliar problems instead of pattern-matching to examples they've already seen.

Holding a Master's in Biomedical Sciences, Sarah brings real research-level understanding to topics like cell biology, genetics, and human physiology. She unpacks dense scientific vocabulary and teaches students to read diagrams, interpret data, and connect concepts across systems. That depth makes a noticeable difference when a student is struggling to see how individual facts fit into a bigger biological picture.

A Vanderbilt neuroscience degree means Nathan spent years inside biology, chemistry, and physiology courses — not just memorizing terminology but learning how to design experiments, interpret data, and connect systems across disciplines. He brings that cross-subject fluency to science tutoring, whether a student is struggling with cell division, the periodic table, or how to read a graph in a lab report.

Neuroscience is inherently interdisciplinary, so Benjamin spent four years at Vanderbilt moving between biology, chemistry, and physics — learning how ion channels obey electrochemical gradients, how imaging technology relies on electromagnetic principles, and how statistical analysis validates experimental results. That breadth makes him especially effective at showing students how scientific concepts connect across disciplines rather than existing in isolated chapters.

Emma earned her biology degree at Duke and conducted field research on Hawaiian monk seals, so she understands science as something you do, not just something you read about. She unpacks core concepts in life sciences, ecology, and biology by tying them back to real organisms and real data. Students preparing for exams or working through tough lab assignments get someone who genuinely lives this material.

A Gates Cambridge Scholar headed to Yale Law, Yusef knows how to digest dense material quickly and extract what matters — a skill that pays off when students are wading through biology chapters or chemistry units packed with unfamiliar terminology. He teaches reading-heavy science the way he'd prep a legal brief: identify the key claim, find the supporting evidence, and figure out what's actually being tested. His 32 ACT confirms he can handle the data interpretation and quantitative reasoning science coursework requires.

A lot of science anxiety comes from the sheer volume — memorizing cell organelles, balancing equations, interpreting lab data — without a framework for how the pieces fit together. Priya tackles this by teaching students to map relationships between concepts (like how chemical bonding rules explain biological molecule behavior) so that new material slots into what they already know instead of piling on top of it.

Studying biomedical engineering means Christian lives at the intersection of biology, chemistry, and physics — so he can explain concepts like cell energetics or Newtonian mechanics from the perspective of someone who actively uses them. He approaches science as a way of thinking through problems systematically, teaching students to interpret data and build logical explanations instead of just memorizing vocabulary.

Peter's journalism training — where every claim needs sourcing and every story needs evidence — maps neatly onto how science asks students to support conclusions with data and distinguish observation from inference. His Masters in Education means he knows how to sequence lessons so that concepts like energy, ecosystems, or the scientific method build on each other instead of feeling like disconnected vocabulary lists. Rated 4.7 by students.

Between a bachelor's in chemistry and a master's in environmental toxicology, Amy has logged serious time across chemistry, physics, and biology — not as separate silos but as interconnected disciplines. She unpacks scientific concepts by grounding them in real-world examples, like how pollutant behavior involves both chemical reactions and physical forces. Rated 5.0 by students.

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.

A neuroscience degree means Eshita understands science across disciplines — from cellular biology and genetics to chemistry and physics — and can show how they connect. She breaks down complex processes like signal transduction or energy metabolism into clear, logical steps that make sense on first pass. Rated 5.0 by students.

Studying biomedical data analytics at Ohio State gives Vishank an unusual angle on science — he sees biology, chemistry, and physics as interconnected systems rather than isolated subjects. Whether a student is balancing chemical equations, tracing energy flow through an ecosystem, or breaking down Newton's laws, he connects each concept back to concrete, real-world applications that make the material click.

Studying neuroscience at Notre Dame means John lives in biology, chemistry, and physics every semester — and he brings that cross-disciplinary perspective to science tutoring. Whether a student is tackling cellular respiration, balancing chemical equations, or interpreting force diagrams, he connects abstract concepts to real examples that make them easier to retain.

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 math major at the University of Pennsylvania, Bryan brings genuine quantitative fluency to science — the kind that makes unit conversions, graph interpretation, and calculating rates in physics or chemistry feel routine rather than intimidating. His 35 ACT confirms he can handle the data-heavy reasoning that science coursework increasingly demands, and his 4.9 rating suggests he explains the quantitative side clearly enough for it to actually stick.

Marketing requires surprising amounts of scientific thinking — designing controlled A/B tests, interpreting statistical results, and drawing conclusions from data — and Lilian's business degree gave her hands-on practice with all of it. She breaks down the scientific method by connecting hypothesis-testing and variable control to real examples students can relate to, making the process feel logical rather than abstract. Rated 4.7 by students.

I am an upbeat and patient tutor. I like to make learning as fun as possible, and I'm constantly learning new things.

An English major at Yale isn't the obvious pick for science — but Curtis's perfect 36 ACT means he scored just as well on the Science section, which is really a test of reading data quickly, interpreting graphs, and drawing logical conclusions from unfamiliar passages. That blend of close-reading instincts and analytical precision makes him especially effective for students who can do the science but struggle to extract answers from dense charts and experimental descriptions.

Studying Molecular and Cellular Biology at Vanderbilt, Carly tackles science the way working researchers do — connecting concepts across disciplines rather than treating biology, chemistry, and physics as separate silos. She also teaches science lessons to Nashville middle schoolers through Vanderbilt Student Volunteers for Science, covering everything from evolutionary mechanisms to ocean currents, so she's practiced at making complex ideas click for different age groups. Rated 5.0 by students.

Public health is fundamentally a science discipline — Edith's degree required coursework in epidemiology, biostatistics, and human biology, which means she can teach concepts like experimental design, data interpretation, and biological systems from direct academic experience rather than analogy. Her 34 ACT confirms she handles the quantitative and analytical demands of science material with ease, and she's especially strong at connecting abstract concepts to real-world health scenarios that make them easier to remember.

Reed's neuroscience and psychology background means he actually uses scientific reasoning daily — designing experiments, interpreting data, and distinguishing correlation from causation. He breaks down topics like cellular biology, basic chemistry, and the scientific method by connecting them to real research questions rather than treating them as isolated facts.

A biomedical engineering degree means Kevin didn't just study biology and chemistry separately — he used them together, applying cellular biology concepts alongside chemical kinetics and thermodynamics to solve engineering problems. That integrated perspective makes him especially effective at showing students how scientific disciplines connect rather than treating each unit as an isolated chapter.