Award-Winning Biology Tutors
serving San Francisco, CA

Megan earned her Bachelor of Science in Neuroscience, which means she spent years immersed in cell biology, genetics, molecular signaling, and physiology — the exact content that makes up most introductory biology courses. She unpacks dense topics like DNA replication and membrane transport by tying them back to real biological systems students can visualize. Her science background makes her especially strong at connecting individual concepts into a bigger-picture understanding of how living systems work.

Christina's computer science background gives her an unusual edge when teaching biology — she approaches topics like genetic coding, protein synthesis, and feedback systems as logical processes with inputs, outputs, and conditional steps, which clicks for students who struggle with purely memorization-based study. Her 34 ACT composite reflects the kind of cross-disciplinary fluency that lets her move comfortably between explaining ecological relationships and walking through the molecular details of cellular respiration.

Studying Bio-Psychology at UCSB on the pre-med track means Aaron lives inside biology — from cellular respiration and signal transduction to genetics and evolutionary theory. He ends every session by having the student teach the material back to him, a technique that exposes shaky understanding before it becomes a problem on exam day. That approach has earned him a 5.0 client rating.

A current M.D. student who took AP Bio in high school and never really stopped studying the subject, Timothy connects introductory biology topics like cell structure, DNA replication, and Mendelian genetics to the bigger picture of how living systems actually function. He's especially effective at turning dense textbook diagrams — think the endomembrane system or mitosis stages — into something students can narrate from memory.

Psychobiology sits at the intersection of biology and neuroscience, which means Shant spent years at UCLA dissecting topics from cellular respiration to neural signaling pathways. He approaches biology by linking molecular-level details to whole-organism function — the kind of big-picture thinking that makes dense material click.

Between serving as an undergraduate teaching assistant for a developmental physiology course and peer-tutoring intro biology classes at UCLA, Raquel has explained topics like cell division, organ-system function, and metabolic pathways to students at every level of preparation. Her nutrition sciences degree adds a practical angle — she can ground abstract concepts like enzyme activity or nutrient absorption in the real biochemistry of how bodies actually process food. She scored a 34 on the ACT and is currently in dental school, where biology stays front and center.

Accepted to medical school after earning cum laude honors at UCLA, Nicole has the kind of science fluency that comes from pushing through pre-med biology coursework — genetics, cell biology, ecology — while simultaneously building a public health foundation that ties those concepts to real-world outcomes. Her teaching experience in middle and high school classrooms in the Philippines and Honduras sharpened her ability to explain processes like natural selection or cellular division to students with very different starting points.

John earned his B.S. in Biology from Loyola Marymount and conducted clinical oncology research at UCLA, giving him both textbook knowledge and bench-level understanding of how biological systems actually work. He digs into topics like cellular respiration, genetics, and ecology by connecting molecular details to the bigger physiological picture. That research perspective makes dense material — enzyme kinetics, gene expression, signal transduction — feel more concrete.

Holding a degree in Cellular and Molecular Biology, Janani digs into topics like cell signaling, gene expression, and membrane transport with the depth of someone who studied them at the university level — not just from a textbook summary. She connects molecular-level processes to bigger biological themes, which makes dense material like cellular respiration or DNA replication easier to retain.

Earning an honors B.S. in Biological Sciences from UC Santa Barbara means Kevin has spent serious time with everything from cell signaling and Mendelian genetics to ecology and evolutionary theory. He's especially sharp at walking through molecular biology topics — DNA replication, transcription, translation — in a way that builds a clear mental picture of what's happening inside the cell. His pre-med trajectory keeps him current with the material, which matters in a field that's always evolving.

What makes Nicholas effective in biology is his insistence on treating each topic — whether it's cellular respiration, genetic inheritance, or ecosystem dynamics — as a piece of a larger puzzle rather than an isolated chapter to memorize. His biology degree and parallel depth in chemistry and physics mean he can explain something like ATP synthesis by grounding it in the thermodynamics that actually drive it, giving students a fuller picture than the textbook diagram alone. He scored a 33 on the ACT, which speaks to the same cross-disciplinary sharpness he brings to his biology sessions.

Between a neuroscience bachelor's and a pharmacology master's, Helen has spent years inside the biological sciences at a molecular, cellular, and systems level. She's particularly sharp on topics where students tend to get lost — cell signaling pathways, membrane transport, and the relationship between genetics and protein expression.

Studying integrative biology at UC Berkeley means Jack doesn't just know textbook biology — he's actively working through how molecular processes, evolutionary theory, and ecological systems connect at a research level. He unpacks dense topics like cellular respiration, genetics, and natural selection by tracing the logic behind each mechanism rather than asking students to memorize diagrams.

A UC Irvine biology graduate, Pooja knows the subject from the molecular scale — DNA replication, enzyme kinetics — all the way up to ecology and evolutionary theory. She teaches students to see biology as interconnected systems rather than isolated vocabulary lists, which makes exam prep far more efficient. Her experience spans both introductory and college-level biology, so she calibrates the depth of each session to what the course actually demands.

Ari's Environmental Studies degree at Wesleyan required deep coursework in ecology, evolution, and earth systems biology — and a senior thesis that wove geobiological evolution into a 50-page epic poem proves how thoroughly those concepts took root. That interdisciplinary lens is especially useful for biology students trying to connect cellular processes to larger ecological and evolutionary patterns.

Siavash is currently earning his M.S. in Molecular Biology at Cal State Northridge, where his research on cancer cells spans genetics, cell signaling, and biochemistry. That hands-on lab experience means he teaches biology — from cellular respiration to gene expression — as interconnected processes rather than isolated vocabulary lists.

Nathan's biology degree from UCLA gave him a solid grounding in the life sciences, and his additional nursing training means he's seen concepts like physiology and anatomy applied in clinical settings where getting the details right actually matters. He teaches biology as a chain of connected steps — breaking down processes like protein synthesis or nutrient cycling into sequential logic rather than isolated facts to memorize.

A neuroscience and physiology degree means Justin didn't just study biology — he lived inside it, from membrane potentials and synaptic transmission to organ-system integration. He brings that depth to topics like cell biology, genetics, and evolution, explaining mechanisms rather than just vocabulary. Students leave sessions understanding how biological systems actually function, which makes retention far easier than flashcard drilling.

Memorizing every metabolic pathway or cell structure is a losing strategy in biology — Kellie instead teaches students to see the underlying logic connecting, say, enzyme function to gene expression to homeostasis. She emphasizes understanding biological systems as interconnected processes, which makes exam prep far more efficient than flashcard grinding. Her parallel expertise in chemistry means she can clarify the molecular details that often trip biology students up.

From cell respiration to genetics to ecology, biology covers an enormous range of material that can feel like pure memorization without the right framework. Mark's public health science training taught him to see biological systems as interconnected — he connects DNA transcription to protein function to disease pathology so students build a narrative instead of a flashcard deck. He's rated 5.0 by students.

Tito's subject range — chemistry, physics, and biology at both the high school and college level — means he naturally teaches biological concepts through their chemical and physical underpinnings, connecting topics like osmosis to concentration gradients or muscle contraction to energy transfer. That cross-disciplinary instinct is especially useful for students who need to see how a process like aerobic respiration isn't just a biology diagram but a series of real chemical reactions. Rated 4.8 by students.

A neuroscience degree is essentially a biology degree with extra depth in cell signaling and physiology, so Jenna's command of genetics, cellular respiration, ecology, and organ systems runs wide and deep. She earned a biology minor on top of that, and she approaches each topic by building a visual story — tracing a molecule through a metabolic pathway or mapping how a gene becomes a protein.

Years of science education — plus enough biology expertise to tutor everything from high school bio to MCAT and GRE subject tests — give Gabriel an unusually wide lens on the discipline. He unpacks topics like cell signaling, genetics, and ecology by tying mechanisms to the bigger "so what" question, making dense material stick. His self-described addiction to reading means he's also sharp at teaching students how to digest a biology textbook efficiently.

Caroline's molecular and cellular biology degree from UC Berkeley means she doesn't just teach biology — she thinks in it, from DNA replication mechanics to the signaling cascades that regulate cell division. She also served as an undergraduate student instructor for Berkeley's General Biology lab, so she knows how to break down complex processes like photosynthesis and cellular respiration into steps that actually make sense.

Fady's biological sciences degree and pre-med trajectory mean he's worked through biology at the level where physiology, microbiology, and anatomy all converge — so when he teaches a topic like organ-system integration or microbial life cycles, he can pull from multiple courses worth of context rather than a single chapter. He's especially effective at turning dense material like immune response cascades or hormonal feedback loops into step-by-step sequences that stick.

Holding a bachelor's degree in Biological Sciences, Joseph digs into biology with the depth of someone who studied it as a primary discipline — not a sideline. Whether the topic is cellular respiration, Mendelian genetics, or ecological systems, he explains underlying mechanisms instead of just definitions. Students walk away understanding how biological processes connect, which makes retention far easier than flashcard memorization alone.

Studying pre-biology at UC Santa Barbara while tutoring high school and AP-level bio gives Alan a useful double perspective — he's learning the material at a collegiate depth and immediately translating it for students tackling topics like ecology, genetics, and cellular processes for the first time. He's particularly strong at connecting introductory concepts to the bigger biological picture, making chapters on things like photosynthesis or heredity feel like parts of one coherent story rather than isolated units to cram. Rated 4.7 by students.

From DNA replication to photosynthesis to phylogenetic trees, biology asks students to hold a lot of detail while still seeing the bigger picture. Jonathan studied Integrative Biology at the university level, so he's comfortable moving between molecular mechanisms and organism-level processes in the same session. He's especially effective at connecting evolutionary logic to topics that otherwise feel like pure memorization.

I am a UCLA Bioengineer. I am a well qualified tutor and have had many years of experience in both paid and unpaid roles from 6th grade to 12 grade to present. I have always excelled in academics, math, writing, and english and have scored well on all standardized tests and state tests. I have scored 800/800 in SAT 1 math, SAT 2 math. I have scored 760/800 in SAT writing. I received scores of 5/5 in AP Calculus AB and BC and have taken numerous other APs, passing the APs in Physics, Biology, Literature, Language and Composition, Environmental Science, Economics, US history, and Chemistry. I was the President of my high school's only tutoring club and only math club, Infinity Math Club, where I dedicated my time tutoring struggling students in all math levels. I was a tutor in my high school's RAMS program for all academic subjects. I love working with students and love to see them succeed in subjects that they once struggled in.

Molecular biophysics sits right at the boundary of biology, chemistry, and physics, so Srini sees biological concepts from multiple angles. He digs into topics like cellular respiration, DNA replication, and ecology by explaining the underlying mechanisms rather than just the vocabulary — an approach that makes retention far easier come exam time.

Biomedical engineering sits right at the intersection of biology and quantitative analysis, which means Christine doesn't just know cell structure and metabolic pathways — she understands them well enough to model them mathematically. She's particularly strong on molecular biology and physiology concepts, connecting textbook diagrams to the real mechanisms they represent.

JF's math and computer science training at Stanford might seem unrelated to biology, but it actually sharpens how he teaches the subject — genetics problems become probability exercises, population ecology clicks through mathematical modeling, and enzyme kinetics suddenly makes sense when you treat it like a rate equation. That quantitative lens gives students a second way into topics that feel overwhelming when approached through pure memorization alone. Rated 5.0 by students.

UCLA's Physiological Sciences program forced Annie to learn biology backward from how most students first encounter it — starting with how organ systems fail in disease, then drilling down into the cellular and molecular mechanisms that explain why. That perspective, now deepened by medical school, makes her especially effective at teaching topics like homeostasis, cell signaling, and metabolic regulation as cause-and-effect chains rather than disconnected vocabulary lists. Rated 5.0 by students.

Kate approaches biology through the lens of someone trained in environmental systems, which means topics like ecology, nutrient cycling, and cellular respiration get grounded in how living organisms actually interact with their surroundings. She's equally comfortable walking through genetics problems or explaining membrane transport, drawing on seven years of science tutoring to pinpoint exactly where confusion starts.

Kevin's master's work in Stanford's Biocomputation track sits at the intersection of biology and computer science, which means he thinks about molecular biology, genetics, and cellular processes through a quantitative lens. He's especially sharp on topics like gene expression, protein structure, and the logic of metabolic pathways. That computational perspective often gives students a clearer framework for understanding how biological systems actually function.

Studying biology and chemistry simultaneously on Northwestern's pre-med track means Kade is constantly toggling between the molecular and the organismal — seeing how something like enzyme regulation in a biochemistry problem set connects directly to the ecology or genetics material he's covering the same week. That dual lens is especially useful for students who can memorize individual processes like meiosis or the light reactions but struggle to see how those pieces fit into larger biological systems. His 1550 SAT reflects the same kind of structured, cross-disciplinary thinking he brings to science tutoring.

Zosia's chemistry degree from Yale means she learned biology through its molecular underpinnings — organic reaction mechanisms, chemical equilibria, thermodynamics — which gives her a distinctive angle on topics like enzyme function, metabolic regulation, and signal transduction that pure biology majors sometimes treat as black boxes. Her additional coursework spanning cell biology, molecular biology, evolutionary biology, and plant biology rounds out that chemical lens with the ecological and organismal perspective students need for a complete picture. Rated 4.9 by students.

Studying biology and computer science at McGill, Hannah lives in the world of biological systems daily — from cellular respiration pathways to genetics and molecular biology. She approaches tough concepts like DNA replication or enzyme kinetics by walking through the logic step by step, drawing on cognitive science principles to make dense material easier to retain.

Phillip's biomedical engineering studies at Brown mean he encounters biology through the lens of design — how tissues are engineered, how physiological systems can be modeled, how feedback loops in the body mirror control systems in machines. That perspective makes him especially effective at teaching topics like homeostasis, organ system integration, and cell membrane transport, where engineering intuition clarifies what pure memorization can't. Rated 5.0 by students.

Paula's psychology background gives her a useful entry point into biology — she understands behavioral and cognitive systems well enough to trace them back to their biological roots, from neurotransmitter activity to hormonal feedback loops. That perspective makes her especially effective at teaching the life science topics where behavior meets physiology, like the nervous system, endocrine signaling, and basic genetics. Rated 4.8 by students.