Niabari's background spans molecular genetics and health care delivery, giving her a rare ability to connect biological concepts — like cellular respiration or DNA replication — to real-world medical applications. She breaks down complex scientific processes into logical steps, making dense material easier to retain and apply on exams.

Between a microbiology degree and a doctorate in dental science, Daniel has spent years inside laboratories and clinical settings where biology, chemistry, and physiology overlap constantly. He unpacks concepts like cellular respiration, acid-base equilibria, and organ system function by tying them to real scenarios he's encountered. That cross-disciplinary perspective is especially useful for students who need to see how individual science topics connect to a bigger picture.

Chemistry is Jake's strongest science lane, covering everything from stoichiometry and equilibrium through the AP-level material on thermodynamics and electrochemistry. He breaks down intimidating reaction problems into smaller, logical steps that make the underlying patterns visible.

Pursuing a graduate degree in chemical and biomolecular engineering means Alex lives at the intersection of physics, chemistry, and applied math every day. He breaks down scientific reasoning — unit analysis, interpreting experimental data, connecting formulas to physical intuition — in ways that make problem-solving feel less like guesswork and more like a logical sequence.

I am Arizona born and raised, my education includes an NYC law school degree with an undergraduate BS degree from University of Miami. In college I majored in Health Sciences with minors in Psychology and Public Health while in law school I leaned into corporate law and finance. Between law school and college I've pretty much covered every topic under the sun! In my spare time, I enjoy reading (especially mystery novels), pretending I'm a chef, and meditating.

Building high-powered lasers as a hobby gives Sam a hands-on instinct for science that most tutors can't replicate — he understands optics, circuitry, and materials properties because he's physically assembled them. When explaining concepts like energy transfer, wave behavior, or the scientific method, he draws on real experiments and tangible examples that make abstract ideas click.

A biomedical engineering degree from Arizona State's Barrett Honors College means Brodie spent years applying physics, chemistry, and biology to real design problems — from biomechanics to circuit analysis. He unpacks scientific concepts by tying them to tangible systems students can visualize, which makes topics like energy transfer or cellular processes click faster.

While science isn't Andrew's primary credential, he's taught physical science, chemistry, anatomy, and physiology — and his analytical training at Northwestern carries over well to interpreting data, understanding experimental design, and connecting cause-and-effect relationships. He's particularly effective at teaching students how to read scientific graphs and extract meaning from lab results, skills that overlap with his economics background.

Understanding science often comes down to reading data correctly — interpreting graphs, identifying variables, and distinguishing correlation from causation. Luke's psychology research background trained him to break down experimental design and statistical reasoning, skills that translate directly to helping students tackle scientific concepts with confidence. Rated 4.9 by students.

Lindsey's neuroscience degree required coursework spanning biology, chemistry, and research methodology — so she doesn't teach scientific concepts in isolation but shows how they layer together, from molecular interactions up to whole-system behavior. Her experience as a peer tutor for biology at Trinity sharpened her ability to rephrase dense material in plain language until it actually lands. Rated 5.0 by students.

Leah's math background makes her especially effective at the quantitative side of science — unit conversions, interpreting data tables, and applying formulas in physics or chemistry contexts. She teaches students to read scientific problems the same way she reads math problems: by identifying what's given, what's needed, and which relationship connects the two.

Strong science understanding often comes down to whether a student can work the underlying math — balancing redox equations in chemistry, resolving force vectors in physics, or interpreting exponential decay in biology. Aaron tutors AP Chemistry, AP Physics 1, and Newtonian mechanics alongside his pure math studies at Rice, so he bridges the gap between scientific concepts and the calculations that support them. His stargazing hobby even feeds into his astrophysics and astronomy tutoring.