A biomedical engineering degree from VCU required Waleed to master physics, chemistry, and biology as interconnected disciplines rather than isolated subjects. He teaches science by anchoring abstract concepts — force diagrams, chemical reactions, cellular processes — to real-world applications students can visualize and remember.

Seven years of policy work at the Virginia Department of Taxation meant Amber spent her days doing what science coursework ultimately asks students to do: gather evidence, analyze it systematically, and defend a conclusion in writing. She brings that same structured approach to teaching students how to interpret data, trace cause-and-effect relationships, and explain their reasoning clearly — skills her 1500 SAT confirms she's sharp on herself.

At Yale, Molly's Global Affairs coursework meant constantly synthesizing findings across disciplines — reading public health studies, interpreting environmental data, and evaluating competing scientific claims about climate, disease, and resource scarcity. That cross-disciplinary habit of asking "what does the evidence actually show?" is exactly what she brings to science tutoring, particularly when students need to connect observations to explanations or make sense of graphs and experimental setups.

Austin's applied mathematics training makes him especially useful for the quantitative side of science — unit conversions, interpreting graphs, setting up proportional relationships, and translating word problems into equations. He tackles science coursework by showing students how to read a problem like a mathematician: identify what's given, what's asked, and which formula bridges the gap.

Briana's cognitive science coursework covered neuroscience, biology, and research methodology, giving her a solid grounding in the scientific concepts students encounter in middle and high school. She's particularly effective at teaching students how to read data tables, interpret graphs, and understand the logic behind experimental design. For students who find science textbooks intimidating, she connects abstract concepts to concrete, everyday examples.

A biochemistry degree and ongoing pharmacy doctorate give Joel the kind of cross-disciplinary science fluency that connects biology, chemistry, and physics into a coherent picture. He teaches students to approach scientific problems by identifying variables and relationships first, then applying the right formula — a method that works whether the topic is cell respiration or stoichiometry.

Earning both a biology degree and a medical degree means Bhumi has studied science at every level — from introductory cell biology and chemistry to advanced human physiology and microbiology. She connects abstract concepts like osmosis or enzyme kinetics to real clinical examples, which makes the material far easier to remember when exam day arrives.

Three years of precepting Cell Biology and Genetics at VCU gave Anurag a front-row seat to the exact concepts that confuse students most — mitosis versus meiosis, Mendelian inheritance patterns, enzyme kinetics, and how to read experimental data. He also led supplemental instruction for both semesters of general chemistry, so he's comfortable moving between biology and chemistry topics in a single session. His current work as a medical scribe keeps that scientific reasoning sharp in a real-world clinical setting.

An electrical engineering major doesn't just take science courses — Emma lives in them, from circuit analysis and physics to the math-heavy lab work that underpins every engineering discipline. That daily immersion in quantitative problem-solving and hands-on experimentation means she can walk students through everything from interpreting data sets to understanding energy, forces, and the physical principles that show up across science curricula. Her 4.9 rating suggests the explanations land.

Studying biology in a BS/MD pipeline at VCU means Roshni isn't just reviewing science concepts — she's actively using them in upper-level coursework every semester. She's particularly sharp on the overlap between chemistry and biology, explaining topics like enzyme kinetics or the chemistry of DNA replication in ways that connect the two disciplines rather than treating them as separate classes.

Between a biomedical engineering degree and medical school, Sanam has spent years living inside biology, chemistry, and physics — not as separate subjects but as interconnected systems. She's particularly effective at unpacking topics like forces and energy in physics or chemical equilibrium by tying them back to biological processes students can visualize. Rated 5.0 by students.

Kyle's MA in philosophy trained him to do exactly what science asks of students — construct logical arguments, evaluate evidence, and identify where reasoning breaks down. He applies that same rigor to teaching hypothesis formation and experimental design, walking students through how to move from observation to testable claim to supported conclusion. His 32 ACT and interdisciplinary background spanning psychology and history mean he's comfortable with both the quantitative and reading-heavy sides of science coursework.

Engineering students don't just memorize formulas — they learn to reason through physical systems, and that's the lens Ying brings to science tutoring. Whether a student is working through force diagrams, energy conservation, or basic chemistry stoichiometry, she connects abstract concepts to tangible, real-world examples that make the logic click.

Biomedical engineering sits at the intersection of biology, chemistry, and physics, so Samiya doesn't just know these subjects in isolation — she understands how they connect. She's particularly effective at unpacking concepts like cellular transport, reaction kinetics, or force analysis by tying them back to real biomedical applications that make the material click.

Kendra approaches science the way she approaches reading comprehension — by teaching students to observe carefully, ask questions, and support claims with evidence. Her international development studies at UCLA included coursework on environmental systems and public health, giving her real-world context for topics like ecosystems, the water cycle, and human biology. She's especially effective at helping students write up lab reports and explain scientific reasoning in their own words.

I am a graduate of Tufts University. I received my Bachelor of Arts in English as well as a minor in History. Since graduation, I have worked as a 7th grade Reading Language Arts teacher in Dallas Texas at a newly formed public all boys school. This has provided me with great experience and insight into how students best learn and how to create culturally responsive lessons that students will engage with. I am most passionate about English, Literature, History, and Spanish. In my experience, working to prepare students for state standardized tests has had the additional benefit of helping students to discover what they enjoy reading about. This increase in intrinsic motivation to read has had an important impact on struggling students. I am dedicated towards ensuring that students are provided with an education that increases their quality of life.

I am currently a lead preschool teacher. I received my Bachelor's in Psychology from VCU and am looking to return to school to further my education. While in college, I worked as a Supplemental Instruction leader, teaching general biology and anatomy. I have also worked in an after school program with elementary age children, but I have my fondest memories volunteering as a counselor for Camp Kesem. In my own experience, I loved school and now I love teaching even more at all age levels! I especially enjoy the challenge of getting creative to discover what approach and mediums work best for each student. I am available for in person as well as online tutoring.

Every student seems to learn science differently — some need to sketch diagrams, others need to talk through cause-and-effect chains out loud. Megan's cognitive science training at UVA makes her especially good at identifying which approach will make topics like cell biology, force and motion, or the periodic table actually stick for a particular student.

Shahad is a double major in Biology and Bioinformatics with a chemistry minor on the pre-med track, so science isn't just her subject — it's her daily life. She walks students through everything from the scientific method and cell biology to chemical reactions and basic physics concepts, always tying abstract ideas to concrete examples. That real fluency makes a noticeable difference when a student is stuck on a concept and needs it explained a different way.

Biochemistry sits at the intersection of biology and chemistry, so Allison is comfortable moving between cellular processes, molecular structures, and lab techniques in a single session. She's especially strong at explaining how systems connect — why a change in pH affects protein folding, or how ATP production links respiration to metabolism.

Between his public health master's and medical school training, Braveen has a deep grounding in biology, chemistry, and human physiology that he can scale to a middle or high school level. He explains scientific concepts — cell division, chemical reactions, body systems — by tying them to real-world health scenarios, which tends to make the material stick far better than rote memorization.

Julia's dual training in studio art and English built an unusual habit of mind: observing closely, describing precisely, and asking what's actually happening before jumping to conclusions — which is exactly what science demands when students face a diagram, a data table, or a lab setup. She's especially helpful for students who need to strengthen their science reading and writing skills, like pulling key information from a textbook passage or explaining an experiment's outcome in clear, organized sentences.

An English degree builds one underrated science skill: the ability to read dense, unfamiliar material and extract exactly what matters — which is most of what students struggle with when facing textbook passages on cell biology or chemical reactions. Amanda applies that close-reading discipline to help students parse diagrams, follow multi-step processes, and put scientific explanations into their own words. Her 5.0 rating suggests the approach works.

Biology and chemistry aren't separate worlds — Shona studied both as a pre-med student at VCU, plus minored in psychology, so she connects concepts across disciplines the way real science actually works. Whether a student is struggling with cell respiration, balancing chemical equations, or understanding the scientific method itself, she unpacks the reasoning behind each step.

Lauren's Communications and English background means she's strongest on the literacy-heavy side of science — pulling key information from dense textbook passages, decoding experiment descriptions on worksheets, and helping students articulate their reasoning in lab write-ups. For younger or struggling learners especially, the biggest barrier in science often isn't the content itself but the reading comprehension wrapped around it, and that's exactly where her training kicks in.

Between her biology major, chemistry minor, and physics coursework, Monika has covered nearly every branch of science a student might encounter before college. She's especially strong at explaining biological systems and chemical reactions in plain language, turning abstract processes like cellular respiration or stoichiometry into something a student can actually visualize.

Elderen's biology degree gives him a scientist's instinct for how to approach the subject — not just memorizing vocabulary, but understanding how systems interact, from cellular respiration to ecosystem dynamics. He walks students through how to read data tables, design experiments, and build explanations grounded in evidence rather than guesswork.

An English degree might not scream science, but Brooke's 31 ACT composite means she handled the Science section's rapid-fire data interpretation and graph reading under real test conditions — and that's most of what general science asks students to do. She's particularly good at teaching students to pull meaning from charts, diagrams, and dense textbook passages, treating science literacy as a close-reading problem.

Kai approaches science topics like the scientific method, basic chemistry, and earth science by tying them to real-world scenarios students already care about. Leading a campus organization that designs cultural programming has sharpened Kai's ability to make unfamiliar concepts feel accessible and relevant — a skill that translates directly to unpacking tricky science vocabulary and lab-based reasoning.

Mechanical engineering sits at the intersection of physics, chemistry, and applied math, so Michael's degree gave him deep fluency across the core sciences rather than just one. He's particularly strong at breaking down force diagrams, energy conservation problems, and the kind of quantitative reasoning that shows up across high school and introductory college science courses.

International Studies at the University of Richmond required Jessica to synthesize research across disciplines — pulling from environmental science, public health data, and demographic trends to build evidence-based arguments about global issues. That cross-disciplinary training means she's comfortable walking students through interpreting graphs, understanding cause-and-effect relationships, and explaining scientific concepts in their own words rather than parroting definitions. Her 33 ACT, including the Science section's heavy data-interpretation demands, confirms she can handle the material.

Working at a refugee center with children adapting to American public school curricula gave Andrea firsthand experience teaching science concepts to students who were simultaneously learning the language those concepts are wrapped in — which means she's unusually good at separating what a student doesn't understand from what they simply can't yet articulate. She zeroes in on vocabulary-heavy areas like classification, life cycles, and earth systems, breaking dense terminology into roots and accessible explanations. Rated 4.7 by students.

Katie's broad teaching range across math, writing, and technology means she can meet science material from multiple angles — explaining the calculations behind a chemistry problem one minute and helping a student articulate their lab findings in clear prose the next. That cross-disciplinary flexibility is especially useful for younger students whose science struggles often trace back to weak reading comprehension or shaky arithmetic rather than the science itself.

A business administration degree involves more quantitative reasoning than most people realize — Mac's coursework covered statistical analysis, data-driven decision making, and interpreting research findings, all of which overlap with the hypothesis-testing and data interpretation skills science classes demand. He's particularly useful for students who need help connecting graphs and charts to the conclusions they're supposed to draw, since that's essentially what business analytics training drills into you.

I'm a current medical student at VCU School of Medicine, and a graduate of Johns Hopkins University. I received my Bachelor of Science in Molecular and Cellular Biology. I've had the pleasure of tutoring a diverse range of students for 5 years; while I tutor a broad set of subjects, I'm most passionate about biology, psychology, and chemistry. I'm a big proponent of ensuring understanding over memorization and teaching concepts that last for years to come (particularly for other students interested in medicine!) In my free time, I love to write poetry, edit essays, and gush about game writing with friends.