Erik's physics degree and comfort with special relativity and thermodynamics give him direct access to the quantitative machinery behind astrophysics — from deriving stellar luminosity relationships to explaining why time dilation matters near compact objects. He approaches problems like gravitational orbits and energy transport in stars by building up from the classical and modern physics principles students already recognize, so the astrophysical applications feel like natural extensions rather than alien territory.

Alexandra is a published astrophysicist whose research on protoplanetary disks (Yep & White 2020, The Astrophysical Journal) involves spectroscopic analysis, stellar classification, and the physics of accretion. She teaches astrophysics concepts — from Hertzsprung-Russell diagrams to radiative transfer — with the fluency of someone who uses them in active research. Students get direct access to how professional astronomers actually think through problems.

A physics degree gives Logan the mathematical backbone that astrophysics demands — orbital mechanics, stellar luminosity calculations, and the thermodynamics of stellar evolution all build on classical and modern physics principles. He digs into the derivations behind concepts like Kepler's laws and the Hertzsprung-Russell diagram so students understand the reasoning, not just the results.

My expertise is in classroom, small group, and one-on-one instruction in physics of the first year. I have, however, taught at all levels from non-science major courses through the graduate physics curriculum. My education includes a bachelor's degree in physics from Amherst College and a doctorate from Stanford University. During my career I spent time at the University of Illinois, Urbana-Champaign, the University of California, San Diego, the Massachusetts Institute of Technology, the California Institute of Technology, and Brandeis University, where I worked for nearly 40 years. I am a firm believer that students learn in STEM fields only by doing, not by merely listening. Thus the core of any tutoring experience with me is working on problems. The most formative experience a student can have is to work through a problem, explaining each step to the tutor as he or she goes through it. Only by explaining the concepts and skills to someone else can one be sure of his or her own understanding. My goal in any tutoring interaction is to assist the student in gaining the necessary skills, knowledge, and confidence to attack any conceivable problem set to him or her by a classroom teacher.

An aerospace engineering degree means Tony already speaks the language of orbital mechanics, gravitational fields, and stellar radiation — the quantitative core of astrophysics. He digs into topics like Kepler's laws, blackbody spectra, and relativistic effects with the mathematical rigor of an engineer and genuine curiosity about what's actually happening out there.

I graduated from the University of North Carolina at Chapel Hill with a Bachelor of Science in Physics. I work with students in a variety of subjects, including Math, Physics, and Chemistry. I have experience working with students on the Autism spectrum and with ADHD.

Having majored in astronomy, Rohith studied the physics of stellar lifecycles, galactic dynamics, and cosmological structure as core coursework — not electives. He unpacks astrophysics problems by connecting the observational side (what telescopes actually measure) to the calculus and physics that explain why those measurements make sense. That blend of disciplinary training and comfort with the underlying math gives students a tutor who can move fluidly between conceptual questions and quantitative problem-solving.

Stellar evolution, Kepler's laws, and the Schwarzschild metric all require comfort with both the physics and the math simultaneously. Nadine's background spans general relativity, orbital mechanics, and nuclear physics — giving her the range to walk through everything from main-sequence luminosity calculations to the geometry of curved spacetime.

Grey's physics degree from the University of Utah covered the exact foundations astrophysics builds on — Newtonian mechanics for orbital problems, thermodynamics for stellar interiors, special relativity for high-energy phenomena, and quantum mechanics for understanding how stars radiate. He teaches by working through problems hands-on, so concepts like gravitational binding energy or the physics of neutron star degeneracy pressure click through calculation rather than passive explanation. Rated 4.7 by students.

Studying ancient Mediterranean civilizations alongside STEM gave Audrey an unusual entry point into astrophysics — she understands both the math behind stellar evolution and the human story of how we've mapped the cosmos for millennia. She digs into topics like blackbody radiation, Hertzsprung-Russell diagrams, and orbital mechanics with an emphasis on building physical intuition from the equations.

Stargazing is one of Aaron's longtime hobbies, and his pure math studies at Rice give him the quantitative backbone that astrophysics demands — from Kepler's laws and orbital mechanics to blackbody radiation and stellar luminosity calculations. He digs into the physics and the math simultaneously, so students understand both the phenomena and the equations describing them.

Between aerospace engineering, thermodynamics, and cosmology, Anthony's subject list reads like a syllabus for astrophysics — he already works across the disciplines the field pulls together. He tackles topics like orbital mechanics and stellar thermodynamics by grounding them in the engineering math he knows well, making the leap from equations to physical phenomena feel natural. Rated 5.0 by students.

Jonathan's physics degree means he's worked through the same mechanics, electromagnetism, and thermodynamics that underpin how stars form, burn, and die — so when an astrophysics problem calls for deriving radiation pressure or modeling gravitational potential wells, he's pulling from material he studied formally, not picking it up on the fly. His 5.0 rating and 33 ACT reflect genuine quantitative comfort, which matters in a subject where the math can escalate quickly from Newtonian gravity to relativistic corrections.

An astronomy minor gives Milan a perspective on astrophysics that goes beyond textbook equations — he's studied stellar evolution, spectroscopy, and orbital mechanics in dedicated coursework at USF. He tackles problems involving Kepler's laws, luminosity relationships, and nuclear fusion by grounding the math in the physical intuition behind each concept.

I am a graduate of The University of Pennsylvania in Philadelphia. I received a Bachelor of Arts in Biology (Neurobiology concentration), a Bachelor of Science in Economics (Healthcare Management and Policy concentration), and a Master's in Biology. Throughout my undergraduate, I have loved tutoring college and high school students in Math, English, Physics, and Biology. I have also volunteered as an ESL instructor. As a medical school applicant, I have taken numerous standardized tests, and I love helping students figure out strategies that work best for their learning! In my spare time, I enjoy teaching kickboxing, dancing, and baking.