Award-Winning Science Tutors
serving Peoria, IL

As a mechanical engineering student at Harvard, Christopher lives at the intersection of physics and chemistry daily — calculating forces, analyzing material properties, and modeling energy systems. That applied perspective makes him especially effective at showing students why scientific concepts matter beyond the textbook, turning abstract formulas into concrete, intuitive ideas.

Undergraduate research in Northwestern's John Rogers Lab and a biomedical engineering curriculum gave Ingrid hands-on experience with biology, chemistry, physics, and thermodynamics. She explains scientific concepts by connecting them to real applications — like how drug delivery systems depend on diffusion or why cells respond to mechanical forces — which makes abstract ideas stick.

Having studied biology and chemistry alongside her political science degree at the University of Chicago, Asta can walk students through core science concepts — from cell structure to chemical reactions — with genuine content knowledge rather than just test-taking tricks. Her 35 ACT confirms she handled the Science section's rapid-fire data interpretation at a near-perfect level, and she brings that same ability to teach students how to read graphs, pull patterns from tables, and connect evidence to conclusions. Rated 5.0 by students.

Biomedical engineering trained Sam to move fluidly between biology, chemistry, and physics — the same integration students need when tackling science coursework. He unpacks concepts like cellular respiration or circuit analysis by tying them back to the underlying math, which turns abstract diagrams into something students can actually reason through.

Legal training is essentially argument construction from evidence — and Emily applies that same framework when teaching students to work through hypotheses, evaluate experimental outcomes, and explain what data actually supports versus what it doesn't. Her philosophy degree from Northwestern also built the formal logic skills that underpin scientific reasoning, from identifying control variables to spotting flawed conclusions in a lab report.

A philosophy degree from Princeton means Jeff spent years doing exactly what science coursework asks of students — constructing logical arguments, identifying flaws in reasoning, and evaluating whether evidence actually supports a claim. He teaches the scientific method as a form of structured argumentation: hypothesis as thesis, experiment as proof, conclusion as defense. His 1550 SAT confirms he handles the quantitative and data-interpretation side with equal precision.

Law school at the University of Chicago drills a specific kind of reasoning — isolating what the evidence actually proves versus what you assume it proves — and Elena applies that same discipline when walking students through scientific concepts like experimental design, variable control, and data interpretation. Her government and Spanish double major means she's used to synthesizing dense, unfamiliar material quickly, which is exactly the skill students need when a science unit throws new terminology and complex diagrams at them simultaneously.

Earning dual bachelor's degrees in biological and physical sciences and a master's in biomedical sciences means Connor has spent years moving between disciplines — chemistry, physics, biology, and the math that ties them together. He unpacks scientific concepts by connecting them to real phenomena, whether that's explaining Newton's laws through everyday motion or tracing energy flow through an ecosystem. Rated 5.0 by students.

As a medical student at Northwestern's Feinberg School of Medicine, Anna lives inside scientific reasoning every day — forming hypotheses, interpreting data, and connecting biological systems to real outcomes. She brings that same structured thinking to general science topics like the scientific method, ecosystems, and basic chemistry, making each concept feel purposeful rather than random.

Studying cellular and molecular biology at WashU means Astoria lives in the details — enzyme kinetics, gene expression pathways, membrane transport — and can unpack those concepts for students encountering them for the first time. Her premed coursework also covers general chemistry and physics, so she's comfortable connecting ideas across the sciences rather than treating each unit as isolated material.

Viktor's math degree and current computer science work at NYU give him a quantitative backbone that translates well to science subjects — especially the physics, chemistry, and data-interpretation problems where students struggle more with the math than the science itself. He's strongest at untangling unit conversions, graph analysis, and formula application in scientific contexts.

Between AP Physics (1, 2, and both C courses), AP Chemistry, and her applied math studies at Harvard, Sanjana has spent more time inside scientific problem-solving than most tutors on this page — and it shows in how naturally she connects math tools like graphing, unit analysis, and proportional reasoning to the science concepts they support. She also course-assists for Harvard's introductory calculus sequence, which keeps her sharp at breaking down quantitative ideas for students encountering them for the first time. Rated 5.0 by students.

A psychology degree from Duke means Pinelopi spent semesters designing experiments, controlling for confounding variables, and interpreting statistical results — all core scientific skills that most students struggle to apply on their own. She's especially strong at walking through how to set up a fair test and explain what the data actually supports, since that's exactly what her research methods coursework demanded. Holds a 5.0 rating.

An economics major might seem like an unusual fit for science, but Ellie's quantitative background means she's comfortable with the data interpretation, graphing, and hypothesis-testing skills that run through every science class. She's especially effective at teaching students how to read charts, set up experiments logically, and connect observations back to underlying principles.

Between his 35 ACT and a University of Chicago economics curriculum heavy on statistical modeling and quantitative analysis, Benjamin has the analytical toolkit to tackle science topics that lean on math — interpreting graphs, calculating rates, and connecting variables in experimental setups. He's especially good at walking students through the logic of why an experiment is designed a certain way, not just what the textbook says the answer is. Rated 4.8 by students.

Studying biology and computer science at McGill while holding a cognitive science degree gives Hannah an unusually broad scientific vocabulary — she can move fluidly between life sciences, earth sciences, and the data-interpretation skills that tie them together. She's especially good at slowing down when a concept isn't landing, breaking it into smaller pieces, and rebuilding understanding from there.

Studying biology and chemistry on Northwestern's pre-med track means Kade lives in the sciences daily, from molecular biology to organic reaction mechanisms. He unpacks tricky concepts like cellular respiration or stoichiometry by tying each step to the bigger picture of why it matters, which makes the details easier to retain.

Alex's English and political science training built the exact skill set that trips most students up in science classes — reading dense nonfiction carefully, pulling key information from complex passages, and constructing written explanations that actually answer the question. He's particularly useful for students who understand the concepts but lose points on lab write-ups, short-answer responses, and any assignment where 'explain your reasoning' appears in the directions.

Benjamin's background spans physics, astronomy, and statistics — giving him a cross-disciplinary lens on science that ties together concepts like energy conservation, data interpretation, and experimental design. He scored a 36 on the ACT, including the Science section's fast-paced graph and passage analysis, and teaches students to read scientific data with the same efficiency. Rated 5.0 by students.

Pursuing cancer biology at UChicago means Jessica lives inside scientific thinking — designing experiments, interpreting data, and connecting molecular-level processes to big-picture biological questions. She brings that same analytical framework to tutoring, whether a student is working through cell division, ecological relationships, or the basics of the scientific method. Students learn to think like scientists, not just memorize vocabulary lists.

Todd's undergraduate biology training at the University of Illinois gave him deep grounding in the scientific method, cellular processes, ecology, and the quantitative reasoning that ties them together. He breaks down complex topics like experimental design and data interpretation so students understand the logic behind the answer, not just the answer itself.

Music composition is built on the same core skill science demands — noticing patterns, testing what happens when you change one variable, and explaining why the result sounds (or works) the way it does. Charles applies that systematic thinking to science topics like classification, experimental design, and cause-and-effect reasoning, making abstract processes feel more intuitive. His 5.0 rating suggests the approach clicks.

Years of teaching second, third, and fourth graders gave Molly a clear picture of where young students get stuck in science — reading a thermometer, designing a fair test, or explaining why a prediction was wrong. Her classroom experience with reading intervention also pays off here, since so much of elementary science depends on comprehending nonfiction text and pulling meaning from diagrams. Rated 5.0 by students.

I am a recent graduate of the University of Chicago with a BA in English and a MA in the Humanities. My specialties are tutoring in test prep, writing, and reading. I am more than happy to spend time on my students outside of our organized sessions to ensure everyone meets their goals. Please do not hesitate to reach out if you have any questions. Looking forward to our tutoring sessions!

Between a neuroscience degree and a physiology master's program, Gloria has lived in the overlap of biology, chemistry, and anatomy for years. She breaks down topics like cell structure, the nervous system, and basic chemistry by connecting them to real examples from her child development lab work. That research context turns abstract diagrams into something students can actually picture and remember.

Mahalia's Latin training — she tutors all four levels — means scientific vocabulary rarely intimidates her students, since she can trace terms like "photosynthesis" or "mitochondria" back to their Greek and Latin roots on the spot. That language-first approach pairs well with her 35 ACT, which required sharp data interpretation and evidence-based reasoning across the science section. Rated 5.0 by students.

Studying the biological basis of behavior in college meant Ruthie lived at the intersection of biology, chemistry, and research methods — exactly the mix that general science courses demand. She's comfortable walking through everything from cell structure and genetics to experimental design and data interpretation. That cross-disciplinary training makes her especially useful when students need to connect ideas across units rather than treat each chapter as its own silo.

Katie's strongest subjects are math and English, but that combination actually serves science tutoring well — so much of science at the elementary and middle school level comes down to reading comprehension, interpreting word problems, and doing basic calculations with units. Her American Studies and Gender Studies degrees required evaluating research claims and working with data across disciplines, which she channels into teaching students how to think through a hypothesis rather than just memorize textbook definitions.

Jack's triple major at Northwestern — spanning theatre, marketing, and Spanish — meant constantly switching between analytical frameworks, which is exactly what science asks students to do when they move from classifying organisms to balancing equations to interpreting a velocity graph. He leans on that cross-disciplinary flexibility to teach students how to pull patterns from unfamiliar material and explain their reasoning clearly, rather than defaulting to rote memorization.

Charlie's University of Chicago education demanded rigorous analytical thinking across disciplines, and his 35 ACT — which includes a dedicated Science section built around data interpretation and experimental reasoning — confirms he can parse graphs, evaluate competing hypotheses, and draw conclusions from unfamiliar passages under pressure. He teaches students to treat science questions as logic puzzles: strip out the jargon, identify what the data actually says, and eliminate answers that go beyond the evidence.

Brett's ACT Science section required exactly the kind of rapid graph reading and data extraction that general science courses test constantly — pulling trends from tables, identifying control variables, and evaluating whether conclusions actually match the evidence. His 34 composite and communication degree make him especially effective at teaching students not just to interpret scientific data but to explain their reasoning clearly in lab write-ups and short-answer responses.

An architecture degree demands fluency in physics, materials science, and environmental systems — Grace spent years calculating structural loads, analyzing thermal properties, and applying scientific principles to real design problems. That hands-on technical background means she can teach concepts like force, energy, and properties of matter through concrete examples students can visualize, not just definitions to memorize. Holds a 5.0 rating.

Brian earned his biology degree and is now completing medical school, so he's spent years immersed in chemistry, physics, anatomy, and molecular biology. He explains scientific concepts — from cell structure to chemical reactions to forces — by grounding them in real examples rather than abstract definitions. That depth makes him especially effective for students who need to build both vocabulary and intuition in the sciences.

Jacob's 35 ACT — including the Science section, which is really a test of data interpretation and passage-based reasoning — means he knows how to extract answers from graphs, tables, and experimental descriptions under time pressure. His literature background actually reinforces this: close reading is close reading, whether the passage describes a character's motivation or a controlled experiment's results. He teaches students to slow down, identify what the question is actually asking, and find the evidence before jumping to an answer.

Earning a materials engineering degree means Michael spent four years at Northwestern applying physics, chemistry, and data analysis to real problems — figuring out why a material fractures or how heat treatment changes a metal's crystal structure. That hands-on scientific background makes him especially effective at connecting abstract concepts like energy transfer or chemical bonding to tangible examples students can visualize.

A genetics and genomics concentration at Northwestern followed by medical school gave Kruti an unusually deep command of science across disciplines — from how cells divide to how forces act on objects. She breaks down scientific vocabulary and processes into clear, visual explanations, whether a student is tackling the water cycle or learning to read a Punnett square.

Chemical engineering and pre-med coursework gave Siva an unusual range across the sciences — thermodynamics, organic chemistry, biology, and physics all lived in the same semester more than once. That cross-disciplinary fluency means he can explain how energy conservation in physics connects to metabolic pathways in biology, making isolated facts easier to retain.

Public policy analysis at Northwestern meant Nathaniel spent years doing exactly what science asks students to do — reading studies, questioning methodology, and deciding whether data actually supports a conclusion. His 34 ACT confirms he can handle the quantitative side, but his real strength is teaching students to explain their reasoning clearly, especially when writing up lab results or defending an experimental claim in their own words.

Sarah scored a 34 on the ACT, including the Science section, which demands fast, accurate interpretation of data tables, experimental setups, and conflicting scientific viewpoints. She teaches students to read graphs carefully, identify variables, and distinguish correlation from causation — skills that transfer directly to classroom science courses.

A Rice University bioengineering graduate who's currently designing 3D-printed prosthetics in Costa Rica, Nicolette connects science concepts — from cellular biology to physics of materials — to real engineering problems she's solving right now. That hands-on research background makes abstract topics like energy transfer, chemical bonding, and experimental design click in a way textbooks alone can't.