Award-Winning Biology Tutors
serving Austin, TX

A biology degree taught Anna that the subject isn't just memorization — it's learning to trace cause and effect across scales, from DNA transcription inside a single cell to nutrient cycling in an ecosystem. She digs into topics like genetics, cell division, and evolution by asking students to explain mechanisms in their own words, which exposes gaps that flashcards never catch.

Few biology tutors can walk a student from DNA replication through protein folding and then explain what happens when those processes go wrong in a living patient. Jordan does exactly that — her neuroscience degree and medical residency give her a clinician's perspective on cell biology, genetics, and physiology that turns textbook diagrams into stories with real stakes.

The Health Science Scholars honors program at UT Austin has Harsh studying biology with a clinical trajectory in mind, which shapes how he teaches topics like cell division, gene expression, and metabolic pathways — always connecting the textbook mechanism to the bigger question of why it matters in a living system. His 35 ACT reflects the kind of disciplined, detail-oriented thinking he brings to breaking down dense material like protein synthesis or ecological interactions into steps that actually stick.

Studying biology at UT Austin while eyeing medical or optometry school, Anu is learning the subject in real time — which means she remembers exactly which concepts in genetics, ecology, or cell biology tripped her up and how she got past them. That recent experience makes her especially effective at breaking down topics like mitosis or Mendelian inheritance for students encountering them for the first time.

Having taken biology at both the AP and college level, Gabriel learned the same core material — cell division, genetics, ecology, evolution — from multiple instructors with different teaching styles. That means when one explanation of meiosis or gene expression doesn't land, he has other ways to frame it. His 5.0 rating speaks to how well that flexibility works.

Sandra didn't just study biology in a classroom — her biomedical engineering degree at UT Austin wove together cell biology, genetics, and physiology with quantitative problem-solving. She also prepared for the MCAT's biology-heavy sections, which means she can unpack everything from enzyme kinetics to organ system integration at whatever depth a student needs. That dual perspective makes her especially effective for students who find biology's sheer volume of material overwhelming.

Roozbeh's day job as a DAT instructor for Kaplan means he regularly teaches biology content — genetics, anatomy, cell biology — under the pressure of standardized testing, which has made him precise about what students actually need to know versus what they can skip. That test-prep discipline carries over when he tutors general biology: he treats each topic like a puzzle with a finite number of pieces, building the logic of processes like mitosis or ecological cycles until students can reconstruct them from scratch. Rated 5.0 by students.

Biochemistry at UT Austin means Ahila lives inside biology every day — from molecular genetics and cell signaling to ecology and evolution. She unpacks dense topics like DNA replication, enzyme kinetics, and membrane transport by tying them back to real mechanisms she's studying in her own coursework. Her long-term goal of becoming a surgeon keeps her deeply invested in understanding biological systems at every level.

Studying biology at UT Austin means Shobha is immersed in the subject daily — from molecular genetics and cell signaling to ecology and evolutionary theory. She unpacks dense topics like DNA replication or enzyme kinetics by tying them to real experimental contexts, which makes the material easier to recall on exams.

From cell biology and genetics to virology and molecular biology, Barnabas has studied living systems across enough specializations that he can show students how a single concept — say, gene expression — threads through vastly different biological contexts. His biology degree and coursework in biostatistics also mean he's comfortable with the quantitative side of the subject, like interpreting data from genetic crosses or population models, that often catches students off guard. Rated 4.8 by students.

Studying neuroscience at UT Austin means Sneha lives inside biology daily — from cellular respiration and signal transduction to genetics and molecular pathways. She digs into the mechanisms behind each process, teaching students to trace cause and effect through biological systems instead of memorizing disconnected facts. Her 5.0 student rating speaks for itself.

As a biology major at UT Austin on the pre-med track, Min is immersed in this subject daily — from cellular respiration pathways to genetics and ecological systems. She teaches the conceptual frameworks behind biological processes so that memorizing vocabulary becomes a byproduct of actually understanding how living systems work.

Biochemistry training means Samir doesn't just teach biology concepts — he connects them back to the molecular machinery driving every process, from enzyme kinetics to signal transduction pathways. That deeper layer of understanding makes topics like cellular respiration and gene expression click in a way that surface-level review can't. Rated 5.0 by students.

Holding a B.S. in Biology, Meija digs into everything from cellular respiration pathways to ecological dynamics with the depth of someone who studied these systems formally. She's especially strong at connecting molecular-level processes — like enzyme kinetics or DNA replication — to the bigger-picture questions that make biology click.

Studying biochemistry at UT Austin means Riley lives inside biology every day — from cell signaling pathways and enzyme kinetics to genetics and molecular biology. She unpacks dense topics like DNA replication or the citric acid cycle by sketching out each step visually, making the logic of biological systems easier to internalize and recall on exams.

Cell structure, genetics, and ecology can blur together into a wall of vocabulary if nobody shows you the underlying logic connecting them. Spencer's molecular and systems biology research at UT gives him a ground-level understanding of how genes regulate pathways and how cellular mechanisms actually function, which he translates into clear explanations that go well beyond flashcard memorization.

I'm a Computer Science student who's been teaching all my life. From tennis camps for kids to an engineering physics class for college kids, I really enjoy helping someone discover for themselves what they are capable of! Please let me know if there's anything you'd like me to help you with.

I am excited to work with all students, particularly those with special needs (including G/T). Please contact me with any questions you may have, and I look forward to working with you and/or your child!

I am multilingual. I love teaching Mathematics, Sciences, English, History, Writing...you name it. My philosophy is that the most effective teaching comes from knowing how my student learns, and meeting them where they are. I want to instill a love of learning, but that will not happen if I don't get to know my student.

I'm Jay! I'm currently going to college at the University of Texas at Austin. I am majoring in fine arts and I am also in the pre-medical program. Even though I'm not done with college, I have already published papers in the field of epigenetics since my freshmen year of college. Even though I consider myself to have an expertise in languages, I decided to teach areas in the field of natural sciences because those are the subjects that I am most passionate about.

I am passionate about helping students feel confident and be successful in their learning! As a student at UT Austin with broad experience in science, lab work, research, and mentoring, I truly understand how important it is to connect what is happening in the classroom to real-world scenarios. I've been a tutor for three years now, which has taught me that every learner approaches challenges differently. I hope to create an environment where all students feel supported and excited to learn.

I'm excited to help you do well in your own academic career!

I am an experienced Instructor holding 2 masters degree and finalizing my PhD dissertation. I'm experienced with more than 11 years of teaching all levels from K to university students. You learn with excitement and achieving great results. I'm always committed to my students and follow up committed closely and I care a lot of them. My experience with teaching enabled me to utilise many teaching techniques and strategies that allows students to learn easily and effectively. My academic studies enables me to have great self confidence while teaching since I have many years of instructing experience to many levels. To add more, I have taught in 3 different countries with diversity and knowledge experience.

I just finished my Ph.D at Johns Hopkins University in Cell and Molecular Biology. I am an illustrator and science writer now, and am always eager to share the ways of the wonderful world of biology. I generally explain either thru pictures and will make sure you understand concepts before we move on to the next thing.

Rice University's Biochemistry and Cell Biology program forced Michelle to master biology at the molecular level — protein interactions, metabolic regulation, signal transduction — before she ever set foot in medical school at Baylor. Now in her second year of clinical training, she teaches topics like gene expression and cellular energetics by connecting them to the disease mechanisms she's actively studying, which gives students a concrete reason to care about each pathway.

Sugi's dual undergraduate degrees in Cognitive Science and Biochemistry & Cell Biology at Rice mean she studied living systems from two directions at once — the molecular machinery inside cells and the neural architecture that emerges from it. Now a fourth-year medical student at Baylor, she teaches biology by linking foundational topics like signal transduction or gene expression to the cognitive and clinical contexts that make them stick. Rated 5.0 by students.

Studying molecular, cellular, and developmental biology in college — and now pursuing an MD at Stanford — Maggie knows biology at a level of detail that lets her explain not just what happens in a cell but why. She digs into topics like gene expression, membrane transport, and ecological relationships with the kind of mechanistic thinking that turns memorization into understanding. Her MCAT preparation experience also means she knows which biological concepts get tested hardest and how.

A human biology degree from Cornell means Jonathan didn't just study biology — he lived in it, from cellular respiration and DNA replication to organ system physiology and evolutionary theory. He teaches by connecting molecular-level details to big-picture biological questions, which is exactly the skill that separates students who understand biology from those who merely memorize it. Currently pursuing graduate work in human development, he keeps that knowledge sharp and current.

Jake's Human Biology concentration at Stanford — with its focus on health policy — means he studies biological systems through the lens of real-world outcomes, which gives his teaching a practical edge when covering topics like genetics, immunology, or human physiology. He breaks down dense material by connecting it to the health scenarios that make it relevant, and his 5.0 client rating speaks to how well that approach lands.

Studying neuroscience and psychology on the pre-med track at Rice means Aditi encounters biology from the brain outward — tracing how neural circuits depend on cell signaling, how gene expression shapes behavior, and how organ systems maintain the homeostasis that keeps it all running. That perspective makes her especially effective at teaching the connections between biological systems rather than treating each chapter as its own silo. Rated 4.8 by students.

Jessy is currently studying biosciences at Rice on a premed track, which means biology isn't a subject she once learned — it's one she's actively deepening every semester. She unpacks topics like cell structure, DNA replication, and evolution by connecting them to real research and clinical examples that make the material stick. Her tutoring experience spans middle and high school students, so she adjusts the depth to match each course level.

Understanding biology means seeing how systems interact — how DNA transcription leads to protein function, how organ systems maintain homeostasis, how energy flows through ecosystems. Tegan's biosciences coursework at Rice gives her a deep, current grasp of these connections that she translates into clear explanations for high school and introductory-level students.

Studying biochemistry and molecular biology at Rice gave Sanjay a deep, mechanism-level understanding of biology — from signal transduction and gene expression to cellular respiration and membrane transport. He unpacks these processes step by step, linking molecular details to the bigger-picture physiology that ties a biology course together.

Zhengdong's physics PhD gives him an unusual entry point into biology — he thinks in terms of energy transfer, diffusion gradients, and systems dynamics, which means topics like membrane transport, action potentials, and thermoregulation get explained with a quantitative precision that most biology tutors skip. That physics-first perspective is especially useful for students who find purely descriptive explanations unsatisfying and want to understand the mechanics driving biological processes.

Emily's biochemistry and cell biology degree — plus her current research position at UTHealth — means she teaches biology with the kind of depth that comes from working with living systems daily. She's especially strong on cellular processes like mitosis, signal transduction, and gene expression, connecting textbook diagrams to what actually happens at the bench.

From a computational neuroscience lab at Hopkins to a genome editing lab at Rice, Emmanuel has worked with biological systems at scales ranging from neural circuits down to individual DNA sequences — experience that gives him an unusually concrete grasp of how textbook topics like gene expression or signal transduction actually play out in practice. His behavioral biology degree ties those molecular details back to organism-level outcomes, so students see how a concept like synaptic plasticity connects the cellular machinery to the behavior it produces. Rated 5.0 by students.

Biomedical engineering at Brown means Layla works at the intersection of biology and engineering every day — dissecting how biological systems like immune responses or tissue mechanics actually function at the molecular and cellular level. That engineering lens gives her a knack for breaking down dense topics like signal transduction or gene regulation into clear, logical steps rather than walls of terminology. Rated 5.0 by students.

Kinjal's IB Programme background means she first learned biology through the kind of rigorous, inquiry-driven curriculum that most students find intimidating — internal assessments, extended essays, and all. Her biology degree from Texas A&M deepened that foundation into areas like microbiology and biochemistry, and she's especially effective at breaking down dense topics like metabolic pathways or heredity patterns into clear, logical steps. Rated 5.0 by students.

As a Biochemistry & Cell Biology major at Rice, Jennifer doesn't just remember biology — she's actively immersed in it, from molecular genetics to cellular metabolism. She teaches students to build concept maps that link processes together, so photosynthesis and cellular respiration stop feeling like separate chapters and start looking like two halves of the same energy cycle. Rated 4.9 by students.

Kendall's coursework spans both the sciences and the humanities — she's taken AP Biology and AP Chemistry alongside a liberal arts degree focused on gender and sexuality studies, which means she's practiced translating dense scientific material into clear, well-organized arguments and explanations. That cross-training is especially useful for biology topics like genetics, evolution, and human reproduction, where understanding the concepts well enough to write and reason about them matters as much as memorizing the diagrams. Rated 4.9 by students.