Award-Winning Organic Chemistry Tutors
serving Tampa, FL

Amira's neuroscience degree at Northwestern required her to master organic chemistry from both the chemistry and biological sides — understanding how functional groups on neurotransmitters determine receptor binding, how drug metabolism depends on carbonyl reactivity, and why stereochemistry matters at the molecular level. That dual perspective lets her teach synthesis and mechanism problems with concrete examples students actually remember.

Reaction mechanisms are the language of organic chemistry, and Felix learned to speak it fluently during his biochemistry degree, where arrow-pushing wasn't optional — it was survival. He teaches students to recognize patterns across reaction types, whether they're tackling nucleophilic substitutions, elimination competitions, or carbonyl additions, so each new chapter feels like a variation on a theme rather than a fresh nightmare.

Reaction mechanisms are essentially stories — each arrow push has a reason rooted in electron density, sterics, and leaving-group ability. Priya approaches organic chemistry by teaching students to read those stories rather than memorize hundreds of individual reactions, drawing on the biochemistry she encounters in her Burnett Medical Scholars coursework at UCF.

Reaction mechanisms become manageable once a student can track electron flow and recognize nucleophile-electrophile pairs without second-guessing. Daniel's chemistry degree gave him deep practice with arrow-pushing and stereochemistry, and he teaches orgo by building each mechanism from a small set of recurring patterns rather than treating every reaction as a new thing to memorize.

Reaction mechanisms are the language of organic chemistry, and Kevin reads them fluently after years of science coursework at UCSD and medical school at UCF. He breaks down arrow-pushing, stereochemistry, and functional group reactivity by emphasizing the electron-density patterns that predict product formation — so students learn to reason through new reactions instead of memorizing hundreds of individual outcomes.

Reaction mechanisms are the storytelling of organic chemistry — each arrow describes electrons moving for a specific reason, not at random. Harrison's research background in nanotechnology keeps him fluent in the thermodynamic and electronic arguments behind substitution, elimination, and addition reactions, so he can explain why a mechanism proceeds the way it does instead of asking students to memorize hundreds of individual reactions.

Payal's physics degree means she thinks about organic chemistry the way a physicist would — tracking electron density, orbital overlap, and energy barriers rather than treating each mechanism as a standalone recipe. That quantitative instinct is especially useful for topics like conjugation, aromaticity, and reaction kinetics, where understanding the 'why' behind electron movement makes predicting products far more reliable than memorizing outcomes.

Reaction mechanisms are the backbone of organic chemistry, and getting lost in arrow-pushing early makes every subsequent chapter harder. Viral approaches orgo by drilling the electron logic behind substitution, elimination, and addition reactions so students can predict products instead of memorizing hundreds of individual transformations. His biology background also means he connects organic reactions to the biochemical pathways where they actually matter.

I am a dedicated tutor with over 3 years of experience serving as an undergraduate teaching assistant in general chemistry, organic chemistry, and physical chemistry. I graduated with a B.S. from UF and I am an incoming D1 at Columbia CDM. My focus on subjects like mathematics, general chemistry, and organic chemistry, specifically those on the DAT, allows me to share my passion for science with students. I enjoy helping them grasp complex concepts through relatable examples and practical applications. I believe in creating a supportive learning environment where each student feels valued and motivated to succeed. My tutoring approach also emphasizes active engagement and personalized strategies that cater to individual learning styles. I am committed to fostering academic growth and instilling confidence in my students, guiding them toward their educational goals. In my spare time, I enjoy reading about scientific discoveries, playing tennis and soccer, and relaxing by playing guitar.

Reaction mechanisms are the language of organic chemistry, and Roy treats them that way — each arrow-pushing step tells a story about electron density, nucleophilicity, and leaving-group ability. His science training at UF required mastering multi-step synthesis and retrosynthetic analysis, so he walks students through everything from substitution and elimination to carbonyl chemistry with a focus on the logic behind each transformation.

I am also very patient and persistent. I put a great effort into explaining concepts until they are well understood.

I am an undergraduate student at Nova Southeastern University. I am majoring in Neuroscience and minoring in Global Engagement and Exercise Science. I have been admitted to their Dual Admission BS/DO Program and their Razor's Edge Global Scholarship Program. I plan to attend medical school and become a Physician. Throughout my educational career, I have always enjoyed learning and believe it to be a component to a better quality of life. This has made me a passionate tutor as I wish to help others reach their desired goals and obtain an appreciation for education.

Reaction mechanisms are the language of organic chemistry, and Daniel learned to speak it fluently through his microbiology and dental science training. He walks through arrow-pushing, stereochemistry, and functional group reactivity by emphasizing the "why" behind each electron movement — so students can predict products on exam day instead of relying on memorized templates.

Being on the pre-med track at Northwestern while studying both biology and chemistry means Kade is taking organic chemistry alongside the same students he tutors — he knows which professors emphasize what, which problem sets are brutal, and where the common mistakes hide in topics like stereochemistry and acyl substitution. That proximity to the material gives him a practical, recently-tested understanding of how to break down multi-step synthesis problems into manageable pieces.

Reaction mechanisms are the language of organic chemistry, and Josef teaches students to read them — arrow pushing, stereochemistry, and functional group reactivity — rather than memorize hundreds of individual reactions. His biochemistry focus at Cornell means he can connect orgo concepts like nucleophilic substitution and carbonyl chemistry directly to biological molecules students will encounter later.

Reaction mechanisms are the language of organic chemistry, and most students struggle because they try to memorize arrows instead of understanding electron flow. Abrahim unpacks each mechanism — SN1 vs. SN2, E1 vs. E2, electrophilic aromatic substitution — by starting with nucleophilicity, sterics, and leaving-group ability so the logic drives the arrow-pushing rather than the other way around. His 5.0 rating speaks to how well that approach clicks.

Reaction mechanisms are the language of organic chemistry, and David treats them that way — once a student can read electron flow through curved arrows, predicting products for substitution, elimination, and addition reactions becomes systematic rather than overwhelming. His Yale neuroscience training required two semesters of organic chemistry, and he still uses those fundamentals daily in his bioethics graduate work.

Most organic chemistry struggles come down to not recognizing patterns — why a nucleophile attacks here and not there, or how electron-pushing arrows predict a product. Eric's graduate training in chemistry means he teaches reaction mechanisms as a connected framework of electronic and steric principles rather than a list of isolated reactions. Students rated him 5.0.

Having taught General Chemistry, Organic Chemistry, and GOB courses for health professions repeatedly at the college level, Jeremy approaches reaction mechanisms as skills to be practiced — not facts to be memorized. His PhD in Chemistry from Yale means he can trace arrow-pushing, stereochemical analysis, and multi-step synthesis all the way down to first principles, then rebuild them at whatever level a student needs. He holds a 4.6 rating.

Reaction mechanisms are the language of organic chemistry, and Jhonatan treats them that way — teaching students to read electron flow through arrow-pushing until substitution, elimination, and addition reactions feel like variations on a theme rather than isolated procedures to memorize. His biochemistry expertise is especially useful when carbonyl chemistry and amino acid reactivity come into play. He holds a 5.0 client rating.

Daniel's PhD work in genetics and neuroscience at Rockefeller means he uses organic chemistry daily — understanding how small molecules interact with proteins, how drug candidates are designed, and why stereochemistry matters at the molecular level. That real-world context turns topics like carbonyl reactivity and functional group transformations into something students can anchor to actual science, not just exam prep.

David is earning his PhD in organic chemistry at Northwestern, where he teaches undergraduate orgo labs and recitations and has co-written exam questions for the department. That means he knows exactly which reaction mechanisms, stereochemistry problems, and retrosynthesis challenges professors test — and how to break them down so the logic clicks. Rated 5.0 by students, he ties each mechanism to real-world applications that make the material stick.

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.

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.