B.S. in Software Engineering
via MIT OpenCourseWare

A full software engineering curriculum built from MIT's OCW catalog — no generals, pure craft. From clean code fundamentals to distributed systems, databases, security, and performance.

4Years
20Courses
8Pillars
100%Free OCW

Curriculum Overview

MIT OCW courses curated around the 8 pillars of professional software engineering.

What This Is

A software engineering track assembled from MIT's EECS curriculum — focused on how software is designed, built, tested, scaled, and secured. Emphasizes professional craft over pure theory. Every course links to free OCW materials: lectures, problem sets, and projects.

What You'll Master

  • Programming fundamentals & software construction
  • Software design patterns & abstraction
  • Algorithms, data structures & complexity
  • Systems engineering & computer architecture
  • Databases — relational design, SQL, internals
  • Distributed systems & scalable architecture
  • Security — web, systems, cryptography
  • Performance engineering & low-level optimization

Programming

Python, Java, C — writing correct, clean, maintainable code

Design

Abstraction, patterns, modularity, specification

Algorithms

Data structures, complexity, design & analysis

Systems

OS, networks, architecture, concurrency

Databases

Relational design, SQL, query engines, NoSQL

Distributed

Consensus, replication, fault tolerance, scale

Security

Crypto, web security, systems security

Performance

Profiling, parallelism, memory, low-level C

Year One — Foundations of Construction

Software construction, programming fundamentals, discrete math, and intro algorithms.

Year Two — Systems & Engineering

Computer systems engineering, design & analysis of algorithms, databases, and software engineering concepts.

Year Three — Distributed & Secure Systems

Networks, distributed systems, security, and performance engineering.

Year Four — Advanced Engineering & Elective

OS engineering, advanced algorithms, capstone project, and a free elective semester of your choosing.

// Semester 7 — Fall

Advanced + Capstone
Advanced Algorithms
6.854J
TheoryAdvanced
Operating System Engineering
6.828
SystemsAdvanced
Capstone Project — Full-Stack System Design
Self-directed
Capstone

// Semester 8 — Spring

Elective — TBD
Elective Course 1 — TBD
Pending
Elective Course 2 — TBD
Pending
Elective Course 3 — TBD
Pending

Semester 8 — Decide When You Get There

By Year 4 you'll know what's clicked. Strong options: 6.036 (Machine Learning), 6.857 (Network Security), 6.034 (Artificial Intelligence), 6.830 (Advanced DB topics), 16.355J (Software Engineering Concepts), or any advanced OCW course that aligns with where you want to go professionally.

Key Resources

The highest-signal OCW courses and references for this track.

6.824 — Distributed Systems (Spring 2020)

Robert Morris. Full lecture videos, Go labs: Raft, MapReduce, fault-tolerant KV store.

Open →

6.172 — Performance Engineering (Fall 2018)

Leiserson & Shun. C programming, caching, parallelism, Cilk. Full lecture videos.

Open →

6.858 — Computer Systems Security (Fall 2014)

Web attacks, memory exploits, sandboxing, crypto. Full lecture videos and labs.

Open →

6.033 — Computer Systems Engineering (Spring 2018)

The essential systems survey: OS, networks, distributed systems, security, fault tolerance.

Open →

6.005 / 6.031 — Software Construction (Spring 2016)

Testing, specs, ADTs, concurrency, design patterns. The professional coding baseline.

Open →

6.830 — Database Systems (Fall 2010)

Relational model, SQL, query execution, transactions, recovery, distributed DBs.

Open →

6.006 — Introduction to Algorithms (Spring 2020)

The most-watched OCW CS course. Full lecture series, recitations, problem sets.

Open →

6.828 — Operating System Engineering (Fall 2012)

MIT's xv6 OS in C. Processes, file systems, virtual memory. Full labs available.

Open →