Three routes into quantum work. Pick the one that fits your life.
Formal education, self-study and hands-on experience all lead to the same jobs — most people use at least two of them. Here is what each route involves, in order, and what to do first.
Students reach quantum work from physics, computer science, electrical engineering, chemistry, mathematics and cybersecurity, and increasingly from technician and operations roles. No single degree is the "correct" one.
A doctorate is required for academic research and most national-lab scientist positions. It is not required for software, hardware engineering, operations or technician roles — a bachelor's degree plus real project work is a normal entry point.
Find your quantum path.
Six questions about what you actually enjoy. Each answer adds points to one interest area, each pathway weights those areas differently, and the highest total wins. Nothing is stored — it runs in this page.
The scoring, in full
Each of the six questions maps to one interest area. Answers are worth 0, 1 or 2 points for that area, so an area can score 0–2.
Programming, Mathematics, Physics, Engineering, Cybersecurity, Research — every pathway weights these areas from 0 to 3, and the weighted points are added up. The maximum possible score is the sum of its weights × 2.
- Programming: The interest that feeds software, algorithms and security pathways.
- Mathematics: Feeds theory, algorithms, error correction and cryptography.
- Physics: Feeds hardware, research, sensing and applications science.
- Engineering: Feeds hardware, sensing and communications.
- Cybersecurity: Feeds the security pathway almost exclusively.
- Research: Feeds theory and applications science.
1How do you feel about writing code to solve a problem?
Python, notebooks, breaking a big task into small steps.
2How do you feel about working through equations and proofs until they make sense?
Linear algebra, probability, a page of symbols you have to decode.
3How curious are you about how matter behaves at the smallest scales?
Atoms, light, energy levels, why things are the way they are.
4How interested are you in building and operating hardware?
Wiring, lasers, chips, vacuum systems, taking a machine apart and getting it running again.
5How interested are you in encryption, secrecy and breaking codes?
How data stays private, how systems fail, how to defend them.
6How interested are you in questions nobody has answered yet?
Reading papers, running experiments, being wrong for a while.
0 of 6 answered
Answer all six to see your matches. Honest answers work better than strategic ones — the result only suggests what to read next.
What each route actually involves.
Each track moves from beginner to advanced. Use the quiz above to see which one fits you, or read all three — the skills overlap more than the titles suggest.
Formal education
Degrees, in order. Quantum courses usually arrive in the last two years — the early years are the same math and physics everyone takes.
- Beginner
Community college and transfer coursework
Calculus I–III, calculus-based physics, and one programming sequence. Those three are what transfer cleanly into an engineering or physics degree, and City Colleges of Chicago credits are built to move.
- Intermediate
Bachelor's degrees that lead in
Physics, computer science, electrical engineering, chemistry, materials science or mathematics. None of them is the 'right' one: hardware teams hire electrical engineers, algorithm teams hire computer scientists, and chemistry groups hire chemists.
- Intermediate
Master's programs
One- to two-year professional master's degrees in quantum science and engineering, electrical engineering or computer science, often with a lab or industry project. A common route in if your bachelor's is in another field.
- Advanced
Doctoral research
Five to six years, usually funded at US research universities, ending in original research. Required for academic research and most national-lab scientist roles. Not required for engineering, software, operations or technician roles.
Self-study
The four subjects to build in parallel, using free material. This is also how you keep moving if a degree is not available to you right now.
- Beginner
Mathematics
Linear algebra first — vectors, matrices, rotations. It is the language qubits are written in. Then probability, then complex numbers. Calculus helps for the physics, but it is not the gate.
- Beginner
Physics
Waves, interference and probability are the three ideas that carry most of quantum mechanics. You do not need a full physics major to understand a circuit; you do need to be comfortable with the idea that a state is a description, not a thing you can peek at.
- Intermediate
Programming
Python, comfortably, before any quantum SDK. Then Qiskit or Cirq: build a Bell state, run it on a simulator, then on real hardware once you have an account.
- Advanced
Quantum computing foundations
Gates, circuits, measurement, entanglement and interference, then the shape of Shor's and Grover's algorithms. Work through one structured course rather than forty videos — IBM Quantum Learning, Google Quantum AI's education material and qBraid are all free starting points.
Hands-on experience
What actually makes an application or a hiring conversation work: something you built, ran or joined. Start small and finish something.
- Beginner
Projects
One finished circuit beats five started ones. Reproduce a known result, then change one thing and explain what happened. Write it up in a page or a notebook you can show someone.
- Intermediate
Hackathons and competitions
Quantum hackathons run at universities and online, and IBM's Qiskit Global Summer School is free and annual. They are the fastest way to meet people already in the field — check current dates and eligibility on each organiser's site.
- Intermediate
Research experience
Summer research programmes at universities and the national labs (Argonne and Fermilab both run education programmes) put you in a real group. Applications usually open months ahead, so ask the education office what the timeline is.
- Advanced
Internships
Quantum hardware and software companies, national labs and university groups all post internships, usually for undergraduates and often for master's students. Apply through official careers and education pages — and expect the first one to take several attempts.
- Advanced
Cloud quantum platforms
qBraid, IBM Quantum, Amazon Braket and Azure Quantum all offer free tiers or academic access, so you can run circuits on real hardware without owning a dilution refrigerator.
A self-paced spine you can start this week.
The tracks above describe the destinations. This is the order to work through them in: five stages, each with a finish line, assuming nothing but algebra to begin.
- 01
Orientation
1–2 weeksGet the lay of the land: what a quantum computer actually is, what it is not, and where this work happens in Chicago.
By the end you can
- Explain the difference between a classical bit and a qubit in plain language
- Name three kinds of quantum hardware and what each one needs to run
- Point to the Chicago labs and companies doing this work
What you need
A browser and about two hours a week. No coding yet.
Milestone
Write a five-sentence explanation of quantum computing that your family could follow.
- 02
One qubit at a time
2–3 weeksMeet the qubit as a physical object you can control, and see how superposition changes what 'state' means.
By the end you can
- Describe a qubit's state with amplitudes instead of just 0 or 1
- Read a Bloch sphere and predict what a rotation will do
- Explain why measuring a qubit changes it
What you need
Comfort with fractions and negative numbers. That is the whole math requirement.
Milestone
Walk a friend through a Bloch sphere without looking at notes.
- 03
Circuits & gates
3–4 weeksBuild your first circuits. Single-qubit gates, then two-qubit gates, then run them on a simulator.
By the end you can
- Draw a circuit diagram and read one someone else drew
- Apply Hadamard, X, Z, and CNOT gates and explain what each does
- Write and run a short circuit in Qiskit or a browser composer
What you need
A free IBM Quantum account, or any browser for Quirk. Python helps but is not required to start.
Milestone
Build a circuit that puts one qubit into superposition and show the measurement results.
- 04
Entanglement & algorithms
4 weeksLink qubits together, then see how interference turns a strange idea into something faster than classical code.
By the end you can
- Create and measure a Bell state, and explain why the results are correlated
- Describe how interference makes the right answer more likely
- Explain what Grover's and Shor's algorithms are for, without doing the proofs
What you need
Stage 3 circuits. Patience with a few ideas that resist intuition.
Milestone
Present a two-qubit experiment and interpret a histogram of your results.
- 05
Build, present, continue
4–6 weeks, then ongoingTurn what you know into your own project, show it to an audience, and pick your next step in the city.
By the end you can
- Scope a small quantum project and finish it
- Explain your method and results in a five-minute talk
- Identify the next program, mentor or course to join in Chicago
What you need
Everything above, plus a project idea — or borrow one from our resources page.
Milestone
A finished project, a short talk, and a written next step.
Stages 03 onwards need a free simulator account. Everything before that runs in a browser tab — and the resources page lists the ones that are actually free.
Find the tools