Award-Winning Biochemistry Tutors
serving Cincinnati, OH

As a biology and economics graduate now working as a research associate before medical school, Sunny lives in the world of biochemistry daily — from enzyme kinetics and metabolic pathways to protein structure and nucleic acid chemistry. He unpacks dense topics like the citric acid cycle or amino acid properties by connecting molecular details to the bigger physiological picture, which is especially useful for students preparing for upper-level coursework or the MCAT.

Enzyme kinetics, metabolic pathways, protein structure — biochemistry sits right at the intersection of Alexander's two degrees in biosystems engineering and chemical engineering. He teaches the quantitative side of biochemistry (Michaelis-Menten derivations, Gibbs free energy in biological reactions) with the same rigor he applies to engineering problems, which tends to demystify what students often find overwhelming.

A year working at the NIH right after completing her biochemistry major at Swarthmore gives Susie a research-grounded perspective on topics like protein structure, signal transduction, and the regulatory logic governing metabolic networks. She tackles dense material by walking through the underlying organic chemistry step by step — so a pathway like fatty acid oxidation becomes a chain of recognizable reactions rather than a wall of arrows. Rated 5.0 by students.

Enzyme kinetics, amino acid chemistry, metabolic regulation — biochemistry demands that students think in multiple dimensions at once. Camille's medical school coursework at Case Western Reserve required mastering these topics at a clinical depth, and she's comfortable teaching everything from Michaelis-Menten plots to the integration of carbohydrate, lipid, and protein metabolism.

Enzyme kinetics, metabolic pathways, protein structure — biochemistry sits at the intersection of chemistry and biology, and Emeric earned his bachelor's degree right at that intersection. He teaches the subject at the high school, AP, and college level, unpacking everything from Michaelis-Menten plots to amino acid side-chain chemistry with the depth that comes from genuine expertise.

I am a current senior at The Ohio State University, and I will receive my Bachelor of Science in Biomedical Engineering on the pre-med track this spring. After graduation, I will be attending medical school, hoping to become a surgical oncologist. As a college student, I've conducted high-level research across biophysics, fertility, and drug discovery, and I have tutored peers in MCAT physics, general chemistry, organic chemistry, biology, biochemistry, and more. I am very passionate about helping others succeed on the MCAT because I know that this test, while incredibly difficult, can be handled by anyone with the drive and dedication to take it on. I have a broad array of MCAT mnemonics, tips, and tricks that helped me succeed and which I hope to provide to others. Further, I love to tutor in the basic sciences outside of the MCAT, as well as calculus, linear algebra, and differential equations. I love to learn, and I hope to take any chance I have to help others learn! In my free time, I enjoy distance running, lifting, reading both nonfiction and fiction, and playing lacrosse.

Medical school with a focus on infectious diseases means Grant thinks about biochemistry in terms of host-pathogen interactions — how bacteria hijack metabolic machinery, why certain enzyme targets make effective drug sites, and what happens to energy metabolism during sepsis. His biochemistry degree and MD training let him teach topics like amino acid pathways and enzyme inhibition by connecting each mechanism to the microbiology that brings it to life.

Having served as an undergraduate teaching assistant for introductory biochemistry at Cornell, Josef knows exactly which concepts — cofactor roles, enzyme regulation, the interplay between metabolic pathways — trip students up for the first time. He teaches by showing how biochemistry synthesizes organic chemistry, cell biology, and thermodynamics into a single coherent story, so each pathway feels like a logical extension rather than a separate thing to memorize. Rated 5.0 by students.

Pre-med coursework at Northwestern means Manideep is actively working through the toughest parts of biochemistry right now — amino acid structures, membrane transport mechanisms, and the regulatory logic behind major metabolic pathways. That proximity to the material gives him a sharp sense of where students get stuck, especially when translating organic chemistry principles into biological contexts. Rated 5.0 by students.

Enzyme kinetics, metabolic pathways, protein structure — biochemistry sits at the intersection of biology and chemistry, and students often struggle because they try to learn each topic in isolation. Phoebe's Master's in Biomedical Sciences gave her deep fluency in exactly these systems, from amino acid chemistry to the regulation of glycolysis and the citric acid cycle. She unpacks each pathway by connecting molecular structure to biological function, which makes the logic stick.

Enzyme kinetics, amino acid structures, metabolic pathways — Biochemistry demands that students hold molecular details and big-picture biological function in their heads simultaneously. Ibi is actively studying these topics in her premedical post-bac program, so she explains concepts like Michaelis-Menten curves and lipid metabolism with the fluency of someone who just worked through them herself. That recency makes a real difference when a student is stuck at 11 p.m. before an exam.

Managing an immunology lab means Matthew doesn't just teach enzyme kinetics, protein structure, or metabolic pathways from a textbook — he uses them daily in his breast cancer research at Columbia. He walks through topics like signal transduction, amino acid chemistry, and lipid metabolism with the kind of specificity that turns confusing diagrams into logical sequences students can actually reason through.

I am most passionate about biology and chemistry. I am a firm proponent of education, believing it to be absolutely necessary for an improved quality of life, and I try to impart this appreciation to all of my students.

Enzyme kinetics, metabolic pathways, and amino acid chemistry all converge in biochemistry, and keeping them straight requires more than flashcards. Kaitlyn tackles these topics daily in medical school, so she teaches Michaelis-Menten plots, glycolysis intermediates, and protein structure with the kind of fluency that comes from constant use rather than distant memory.

Enzyme kinetics, metabolic pathways, protein structure — biochemistry asks students to think across chemistry and biology simultaneously, which is exactly what Saniya's neuroscience and chemistry training prepared her for. She unpacks complex topics like Michaelis-Menten kinetics or amino acid properties by linking molecular behavior to biological function, making dense material more intuitive. Her continued coursework in physiology and histology keeps these connections sharp.

Enzyme kinetics, metabolic pathways, protein folding — biochemistry sits at the intersection of biology and chemistry, and Natasha lives at exactly that intersection as a chemical and biomolecular engineering graduate student at MIT. She unpacks reaction mechanisms and molecular interactions by encouraging students to talk through each step out loud, turning dense pathway diagrams into narratives that actually stick.

Neuroscience majors don't just memorize biochemistry — they depend on it, and Janki's coursework at Kentucky meant tracing every concept from neurotransmitter metabolism to oxidative phosphorylation back to the underlying chemical logic. She teaches topics like enzyme regulation and pathway energetics by building each mechanism piece by piece, so students can predict what happens next in a pathway instead of relying on rote recall. Rated 4.8 by students.

Earning a BS in Biochemistry from Boston College and then completing a PhD in molecular biology means Monika has spent years immersed in enzyme kinetics, metabolic pathways, and protein structure-function relationships. She tackles tough topics like the citric acid cycle and Michaelis-Menten kinetics by connecting each reaction to its biological purpose, turning rote memorization into logical storytelling.