Award-Winning Computer Science Tutors
serving Glendale, AZ

John transitioned from law into co-founding a software company, which meant teaching himself to think in algorithms, data structures, and system design under real deadlines. He approaches computer science the same way — breaking problems into smaller, solvable pieces before writing a single line of code. That builder's mindset makes debugging and logic design feel less intimidating.

I am a graduate student currently working on my Master's Degree in Big Data Systems.

From sorting algorithms and Big-O analysis to data structures like trees and hash maps, computer science is ultimately about choosing the right tool for a given problem. Mehek earned her degree in computer and information sciences and teaches across multiple programming languages, which means she can explain concepts at the theoretical level without losing sight of implementation. She's rated 4.7 by students.

Geoffrey's electrical engineering coursework at ASU means he lives in code daily — from writing embedded C for microcontrollers to building data structures in Python. He tackles computer science as applied problem-solving, connecting abstract concepts like recursion and algorithmic complexity to tangible projects students can see working.

Spencer approaches computer science the way he approaches any complex system: by breaking it into smaller, logical components and understanding how they connect. His analytical training across international relations, business, and quantitative coursework at BYU and Thunderbird gives him a structured problem-solving mindset that translates well to topics like algorithms, data structures, and programming logic. He's especially effective with students who think conceptually but struggle to translate ideas into code.

From sorting algorithms and Big-O analysis to database design and operating system fundamentals, computer science covers enormous ground. Ajay brings both an electrical engineering degree and hands-on software engineering experience to the table, which means he can explain not just how an algorithm works in pseudocode but what's actually happening at the hardware level when it runs.

Concepts like recursion, data structures, and algorithm complexity click faster when someone can show you why a linked list matters, not just how to implement one. Ayushi studied computer science through her master's at Arizona State and spent time tutoring CS students at the university's engineering tutoring center, so she's seen exactly where beginners and intermediate students get stuck. She unpacks abstract ideas with concrete examples and traces through code step by step.

I'm excited to start sharing my love of learning with everyone else.

A Stanford MS in Computer Science means David can teach everything from data structures and algorithms to object-oriented design with the depth that comes from building real systems — not just reading about them. He spent a summer teaching web and app development to high school students in Palestine, so he knows how to make abstract CS concepts click through hands-on projects.

Isabella TA'd multiple computer science courses at MIT, so she's seen exactly where students get stuck — whether it's tracing recursive calls, understanding how data structures like linked lists and trees actually work in memory, or debugging logic errors in their code. She explains the underlying concepts so that writing correct programs becomes intuitive rather than trial-and-error. Rated 5.0 by students.

Madeline's physics PhD work at Carnegie Mellon means she writes code daily — Python, Java, MATLAB, and Mathematica — to model complex systems and crunch data, which is a very different entry point into computer science than a pure software track. That scientific computing background makes her especially effective at teaching programming logic, debugging strategies, and algorithmic thinking to students who need CS skills for STEM applications rather than just app development.

From basic programming constructs all the way up to computational analysis and finite automata, Andrew has tutored the full range of computer science topics at both the high school and college level. His CS degree gives him the depth to explain not just how an algorithm works but why its time complexity matters. Rated 5.0 by students.

From automata theory and computational complexity to practical algorithm design, Firas covers computer science as both a theoretical discipline and a hands-on craft. His Ph.D. research at the intersection of machine learning and big data means he can connect abstract CS concepts — graph traversals, runtime analysis, NP-completeness — to the systems that actually use them. Rated 5.0 by students.

Michael earned his B.S. in Computer Science from UCLA, where he dug into everything from data structures and algorithms to software design principles. He breaks down abstract concepts like recursion, Big-O analysis, and object-oriented programming into concrete, step-by-step logic that clicks. He also teaches JavaScript, giving him a practical edge when students need to connect theory to actual code.

Trained in computer science at UT Austin and currently pursuing a PhD that blends computational methods with social science, David brings both theoretical depth and applied versatility to CS instruction. He digs into core topics like algorithm analysis, data structures, and computational complexity, connecting them to the kind of real-world problem-solving that makes the discipline click.

Philosophy trained Calin to build rigorous logical arguments; his math and CS degrees taught him to express that logic in C++ and JavaScript. That combination means he teaches programming concepts — from algorithm design to data structure selection — as exercises in precise reasoning, where every line of code follows from a clear chain of thought. Rated 5.0 by students.

Pursuing both computer science and data science at NYU's Courant Institute with a cybersecurity minor, Diego lives in this material daily — from algorithms and data structures to networking and systems-level thinking. He breaks abstract CS concepts into smaller, buildable pieces so students can trace the logic themselves rather than just copying solutions.

Studying computer science at Cornell, Eric tackles everything from algorithm analysis and Big-O notation to systems-level concepts like memory management and recursion. He breaks down problems the way a CS student actually encounters them — whiteboarding a solution, tracing through edge cases, then translating logic into clean code. His 5.0 rating speaks to how clearly that approach lands.

From sorting algorithms to recursion to object-oriented architecture, computer science rewards the ability to think in layers of abstraction. Joel is pursuing CS at Cornell alongside physics, which means he approaches programming problems with both mathematical rigor and practical debugging instincts. He's comfortable across Python and Java and adapts to whatever language a student's course requires.

From computer architecture and theory to parallel computing and machine learning, Brandon's master's coursework at RIT covers the full stack of computer science concepts. His two years of professional industry experience mean he can connect abstract topics — algorithm complexity, concurrency models, data structures — to how they actually show up in production code. Students rated him 4.9, which tracks with his ability to make dense CS material feel approachable.