Award-Winning Organic Chemistry Tutors
serving Philadelphia, PA

Reaction mechanisms are the backbone of organic chemistry, and most students struggle not because the material is impossibly hard but because they try to memorize hundreds of reactions instead of learning the handful of electron-pushing patterns that explain almost all of them. Rebecca's science training means she teaches students to read a mechanism the way you'd read a sentence — subject, verb, object — so new reactions become predictable rather than surprising.

Most students dread organic chemistry because it feels like a new language, but the logic underneath reaction mechanisms is surprisingly consistent once someone lays it out clearly. Ade approaches each reaction type — substitution, elimination, addition — by teaching students to read electron movement and predict products rather than memorize hundreds of individual reactions.

Reaction mechanisms are the backbone of organic chemistry, and most exam mistakes trace back to shaky arrow-pushing fundamentals. Abhinav teaches students to classify reactions by nucleophile-electrophile interactions first, then layer on stereochemistry and regiochemistry — an approach that turns a seemingly infinite number of reactions into a manageable set of patterns.

Reaction mechanisms are the backbone of Organic Chemistry, and learning to push electrons through an SN1, SN2, or E2 pathway requires a kind of visual logic that's very different from Gen Chem. Tom's neurobiology concentration at Penn meant he encountered organic reactions in both the classroom and the lab, giving him a practical feel for how functional groups behave. He teaches students to recognize patterns across reaction types so new mechanisms feel like variations on a theme rather than entirely new material.

Reaction mechanisms are really just stories told with curved arrows, and Zain teaches students to read them that way — tracking electron flow through substitution, elimination, and addition reactions until predicting products feels intuitive. His chemistry major at Swarthmore included extensive organic coursework, and it's one of his most-tutored subjects.

Steven studied organismal physiology at Drexel, which meant working through organic chemistry not as a standalone course but as a tool for understanding how molecules behave in living systems — enzyme active sites, metabolic intermediates, drug interactions at the molecular level. That biological context gives him a practical angle on topics like carbonyl chemistry and stereoselectivity that pure mechanism drilling often misses. Rated 5.0 by students.

Reaction mechanisms are the language of organic chemistry, and Sophie approaches them as logic puzzles rather than sequences to memorize. Her dual science background and MCAT prep experience mean she can walk through arrow-pushing, stereochemistry, and substitution-versus-elimination decisions with the kind of systematic reasoning that turns a confusing course into a manageable one.

I am currently a graduate student in Chemical Engineering at the University of Delaware. I am working on using magnetic and flow fields to create advanced materials by directing the self-assembly process of nanoparticles . I have tutored students in Chemistry, Physics and Math all throughout undergraduate and graduate work. I truly enjoy breaking material down into its core components that allows the students to understand complicated information.

Reaction mechanisms click when you stop memorizing arrow-pushing patterns and start understanding electron density, nucleophilicity, and sterics as a connected system. Michael's doctoral research in materials chemistry required him to design and troubleshoot multi-step syntheses, so he teaches organic chemistry the way a working chemist actually thinks through it.

Reaction mechanisms are the language of organic chemistry, and Kristina speaks it fluently enough to teach both Orgo I and Orgo II. She approaches each mechanism — whether it's nucleophilic substitution, carbonyl addition, or aromatic electrophilic substitution — by training students to track electron movement and recognize patterns, so new reactions start to feel predictable instead of overwhelming.

Anthropology might seem far from organic chemistry, but Dana's coursework in biological anthropology required understanding molecular structures and biochemical processes at the cellular level — functional groups, bonding behavior, and the chemical logic that underpins human biology. She uses that cross-disciplinary perspective to walk through reaction types and electron movement in a way that prioritizes understanding the 'why' behind each mechanism.

I'm available to tutor biology, chemistry, physics, math from Algebra up through AP Calculus, SAT test prep, and French. I've been tutoring students in science and math for 7 years. I also spent 8 months working and studying in France, and have tutored high school and adult students in French. When I'm not working or studying, I love playing volleyball (indoors or on the beach!) and spending time outside, canoeing or hiking with my dog. I look forward to meeting and working with you!

Reaction mechanisms are the backbone of organic chemistry, and most students struggle because they try to memorize arrow-pushing patterns instead of understanding nucleophilicity, sterics, and leaving-group ability. Mary taught organic chemistry as an undergraduate TA at Pitt, spending hours each week walking students through substitution, elimination, and addition reactions until the logic behind each mechanism became second nature.

Michael's bioengineering coursework at Pitt means he learned organic chemistry as the foundation for understanding drug interactions, biomaterial design, and the molecular logic behind physiological systems — not as a standalone course to survive and forget. He tackles reaction mechanisms by encouraging students to visualize electron flow and functional group behavior in three dimensions, connecting arrow-pushing to the physical reality of how molecules actually collide and rearrange. Rated 5.0 by students.

Currently studying chemistry at the undergraduate level, Amina is building her organic chemistry knowledge in real time — which means she remembers exactly where arrow-pushing stops making sense and where functional group reactivity starts to click. She tackles mechanisms by working through practice problems alongside students, using the same strategies she's developing in her own coursework to make electron flow and reaction predictions feel systematic rather than random.

Reaction mechanisms only click when you stop memorizing arrows and start seeing electron density. Kevin spent years as a chemistry TA walking students through nucleophilic substitutions, eliminations, and carbonyl additions, and his biochemistry background means he can show exactly where organic chemistry concepts resurface in biological systems.

Reaction mechanisms are the core of organic chemistry, and most students struggle because they try to memorize arrow-pushing patterns instead of understanding why electrons move where they do. Jamie has tutored organic chemistry extensively alongside his pre-med and medical coursework, and he teaches students to read a mechanism the way you'd read a sentence — identifying the nucleophile, the electrophile, and the driving force before ever drawing an arrow.

Reaction mechanisms are the language of organic chemistry, and Troy spent two semesters teaching that language as an organic chemistry TA. He walks students through arrow-pushing, stereochemical outcomes, and retrosynthetic analysis by emphasizing the handful of recurring electronic patterns that make hundreds of reactions predictable rather than random.

Reaction mechanisms in organic chemistry are less about memorizing hundreds of arrows and more about recognizing a handful of recurring patterns — nucleophilic attacks, leaving group stability, and electron density shifts. Aidan studied organic chemistry as part of Notre Dame's premed track and teaches students to predict products by understanding why electrons move, not just where.

Cornell's biology curriculum threw Raphael into organic chemistry as the bridge between general chemistry and the biochemistry he needed for his pre-med track — meaning he learned reaction mechanisms through the lens of biological relevance, not just isolated transformations on an exam. He tackles arrow-pushing and functional group reactivity by zeroing in on the "why" behind electron movement, building each mechanism step from nucleophile-electrophile logic so students can reason through unfamiliar problems on their own. Holds a 5.0 rating.

Biochemistry majors don't just pass organic chemistry — they keep using it, which means Addison is building on reaction mechanisms and functional group behavior in courses well beyond the introductory sequence at Rice. That ongoing exposure to carbonyl chemistry, stereochemistry, and arrow-pushing in biological contexts gives her a practical fluency that makes tutoring sessions feel less like reviewing old notes and more like working through the material with someone who still thinks in it daily.

Reaction mechanisms are the heart of organic chemistry, and they only make sense when a student can track electron movement and predict how functional groups behave. Malcolm is studying biochemistry and cell biology at Rice, where organic chemistry is foundational — he knows which arrow-pushing patterns show up repeatedly and teaches students to recognize them instead of memorizing hundreds of individual reactions.

Between his biochemistry degree and his current pharmacy doctoral work at VCU, Joel has run through organic chemistry from both the academic and applied sides — understanding how functional group reactivity and stereochemistry translate into real drug design and pharmacological mechanisms. He's also taught university chemistry courses as adjunct faculty, so he knows how to break down multi-step synthesis problems and spectroscopy interpretation at the pace a student actually needs. Rated 5.0 by students.

Reaction mechanisms are the language of organic chemistry, and learning to read them — arrow pushing, stereochemistry, regiochemistry — requires a different kind of thinking than most science courses demand. Kevin studied organic chemistry as part of his biomedical engineering curriculum, where understanding molecular behavior was essential rather than optional. He walks students through each mechanism type until the logic behind substitution, elimination, and addition reactions becomes second nature.

Reaction mechanisms click when you understand electron movement — why a nucleophile attacks one carbon over another, how steric hindrance redirects a pathway, what drives an elimination versus a substitution. Enric's PhD in Chemistry means he's spent years thinking at the mechanistic level and can unpack arrow-pushing, stereochemistry, and retrosynthetic analysis in ways that make each reaction type feel logical rather than arbitrary.

Reaction mechanisms are the backbone of organic chemistry, and spotting nucleophilic attacks or predicting stereochemical outcomes requires genuine pattern recognition, not rote memorization. Lauren's chemistry minor at Duke and her hands-on lab research give her a practical fluency with functional group reactivity that she translates into clear, step-by-step reasoning for each mechanism type.

Reaction mechanisms click once you stop memorizing arrow-pushing patterns and start understanding why electrons move the way they do — nucleophilicity, sterics, leaving group stability. Mitchell's neuroscience degree required extensive organic chemistry coursework, and he breaks down everything from substitution and elimination reactions to carbonyl chemistry by connecting each mechanism to the electronic principles driving it.

Reaction mechanisms are the language of organic chemistry, and Zain treats them that way — teaching students to read electron flow in arrow-pushing diagrams the same way they'd follow the logic of a sentence. His university coursework in organic chemistry at Vanderbilt covered everything from substitution and elimination selectivity to carbonyl chemistry and retrosynthetic analysis.