Mimi approaches math through an inquiry-based lens shaped by her Harvard Ed.M., asking students to reason through problems rather than memorize procedures. Whether the topic is fractions, proportional reasoning, or early algebra concepts, she designs each session around the specific gaps a student brings in. Her creative, learner-centered style is especially effective for students who've decided they're 'not math people.'

From pre-algebra fundamentals through Calculus 2, Aaron covers the full math pipeline and knows exactly where the common stumbling blocks sit — fractions-to-ratios in middle school, the abstraction jump in algebra, and the conceptual leap into limits and integration. His mechanical engineering grad work keeps him using this math daily, so he explains it as a living toolset rather than isolated procedures. Rated 5.0 by students.

From arithmetic through calculus and into graduate-level statistics, Nina has taught math at nearly every level as both a Columbia TA and a private tutor. She's especially effective at pinpointing the exact conceptual gap — whether it's fraction operations, proportional reasoning, or function notation — that's creating downstream confusion, then rebuilding understanding from that specific point.

Plenty of students decide early that they're "not math people" — Reid specializes in dismantling that belief. His approach connects abstract procedures to concrete reasoning, whether that means visualizing fractions on a number line or tracing why order of operations works the way it does, so that confidence builds alongside competence.

Solange approaches math as a subject that rewards structured thinking over speed, breaking problems into logical steps students can follow and eventually internalize. Her 34 ACT composite reflects sharp quantitative reasoning, and she applies that same methodical approach to arithmetic, pre-algebra, and foundational concepts that younger or struggling students need to build confidence.

From simplifying fractions in pre-algebra to tackling derivatives in calculus, Michelle covers the full math pipeline and knows where the common stumbling blocks are at each level. Her biochemistry training at Rice required heavy quantitative coursework, so she's comfortable connecting abstract math concepts — like logarithmic functions or rate-of-change problems — to real applications that make them click.

From pre-algebra fundamentals to multivariable calculus, Charles covers a wide range of math and genuinely prefers teaching it through real-world application problems — figuring out rates of change in a physical system or modeling a trajectory rather than grinding through decontextualized drills. His mechanical engineering studies at Yale keep him immersed in applied mathematics daily, so he can show students why a concept matters, not just how to execute it.

Mechanical engineering at Harvard means Christopher lives in math daily — calculus, trigonometry, and algebra aren't abstract exercises for him but tools he uses to model physical systems and solve design problems. That applied perspective lets him show students exactly where a concept like derivatives or trig identities actually goes, which tends to unlock motivation alongside understanding. He scored a 35 on the ACT and is rated 4.8 by students.

Years of teaching middle school math at a Boston charter school gave Liz a toolbox of ways to break down fractions, ratios, proportions, and early algebraic thinking so they actually click. She's especially skilled at identifying where a student's understanding breaks down and rebuilding from that exact point — a strength sharpened by her special education training. Rated 4.7 by students and families.

Few tutors can teach pre-algebra and multivariable calculus with equal clarity, but Justin's math background runs from a double bachelor's in physics and mathematics through a PhD in Computational Mathematics at the University of Chicago. He pinpoints exactly where a concept breaks down for a student — whether that's fraction operations, quadratic factoring, or function transformations — and rebuilds understanding from that specific gap.

Some students need to see a concept drawn out visually; others need to work backward from the answer to understand the steps. Sabira's applied mathematics degree at Johns Hopkins trained her to approach problems from multiple angles, whether that means arithmetic fundamentals, fraction operations, or early algebraic thinking. She adapts her explanations on the fly until the reasoning genuinely clicks.

From algebra through calculus, James has spent years teaching college and high school students to see math as a connected set of ideas rather than isolated procedures. His chemistry background means he constantly ties abstract concepts — like derivatives or systems of equations — back to tangible problems where the math actually does something. That context tends to make tricky topics click faster.