Award-Winning Geometry Tutors
serving Myrtle Beach, SC

A biology degree might seem unrelated to geometry, but David's scientific training built the exact skill that trips most students up: constructing a logical argument from given information to a conclusion. He applies that reasoning to two-column proofs and theorem-based problems, breaking down why each step follows from the last rather than asking students to memorize proof templates. Rated 5.0 by students.

I'm a Structural Engineering graduate from UC San Diego with a passion for helping students in the math and science fields, as well as SAT/ACT test prep. I've had experience tutoring all subjects up to the high school level, and I strive to create a fun and rewarding environment for students. I've worked with a variety of age groups as a member of the Big Brothers Big Sisters program, and I find it easy to relate to all types of students. When I'm not studying or tutoring, I enjoy playing chess and basketball.

Proofs are usually the first place geometry students get stuck, because suddenly math asks them to argue logically instead of just compute. Ian approaches proof-writing the way he approaches physics derivations at Yale — step by step, with each claim grounded in a specific theorem or postulate. He also covers triangle congruence, circle theorems, and coordinate geometry with the same structured clarity.

Proofs are usually the moment geometry stops feeling intuitive and starts feeling impossible. Noah approaches them as logical arguments rather than memorization exercises, drawing on the same analytical reasoning he sharpened through his political science training at Penn. He also tackles coordinate geometry and triangle congruence by emphasizing the visual logic behind each theorem.

Neurobiology at Harvard meant Emma spent years interpreting complex diagrams of neural pathways and brain structures — skills that translate directly to reading the dense, multi-layered figures in geometry where you have to pull out the right angle relationship or identify similar triangles buried inside a larger shape. She tackles the subject from the logic side, treating each proof like a scientific hypothesis that needs step-by-step evidence. Rated 5.0 by students.

A political science degree from the University of Chicago means Asta spent four years constructing airtight arguments from premises to conclusions — exactly the skill that makes geometric proofs click. She applies that structured reasoning to two-column proofs and logical chains involving congruence, triangle properties, and circle theorems, treating each one like a case to be built rather than a formula to memorize. Rated 5.0 by students.

Proofs are usually the sticking point in geometry — students can calculate angles and areas but freeze when asked to construct a logical argument from postulates. Kevin tackles this by teaching proof strategy as a skill: identifying what's given, what's needed, and which theorems connect the two. His background in computational geometry and algorithmic thinking at Stanford gives him a structured approach that clicks for students who think logically.

Proofs are usually where geometry students hit a wall — the shift from calculating answers to constructing logical arguments feels like a completely different subject. Tom's background in American Studies, which is essentially built on evidence-based argumentation, gives him a unique angle on teaching students to chain geometric theorems into airtight reasoning. He also covers the computational side, from triangle congruence to circle theorems, with the same step-by-step precision.

Proofs are usually where geometry stops feeling intuitive and starts feeling arbitrary. Anthony approaches them as logical arguments rather than rote templates, drawing on his background in math and philosophy to teach students how to construct reasoning step by step. His 5.0 rating speaks to how well that approach clicks.

Proofs are usually where geometry goes from manageable to frustrating — suddenly students need to justify every step with logic instead of just calculating angles. Maggie approaches proof-writing as a skill closer to constructing an argument than solving an equation, a perspective sharpened by her dual background in science and the liberal arts. She also covers coordinate geometry, triangle congruence, and circle theorems with the same emphasis on reasoning over rote steps.

Mechanical and aerospace engineering at Princeton means Matthew lives in a world of geometric constraints — fitting components into tight spaces, calculating load-bearing angles, reasoning about three-dimensional shapes on paper before they ever get built. He brings that same step-by-step precision to teaching triangle properties, angle relationships, and the logic behind constructions, typically demonstrating a technique and then handing students progressively harder problems until the reasoning becomes automatic.

Proofs are usually where geometry stops feeling like math and starts feeling like a foreign language. Ava tackles that disconnect by teaching students to read diagrams actively — identifying congruent triangles, parallel line relationships, and angle pairs before ever writing a formal statement. Her engineering background means spatial reasoning is second nature to her.

A year as a course assistant in Harvard's math department taught Richard how to break abstract reasoning into concrete steps — a skill that pays off in geometry when students need to connect definitions, postulates, and theorems into a coherent proof. His government major, which is essentially an exercise in building airtight arguments from messy evidence, reinforces the same logical sequencing that two-column and paragraph proofs demand.

A biology major from Rice with a 1570 SAT, Perry approaches geometry problems the way he approaches lab work — by breaking complex diagrams into discrete, manageable pieces and reasoning through each relationship step by step. He's especially effective at teaching circle theorems and polygon properties, where students often know the individual rules but freeze when a problem layers several together. Rated 5.0 by students.